Resumen de: US20260070222A1
A method of creating a modified design on a surface, the method including providing a tool, and an industrial robot configured to perform relative movements; providing a digital model of the surface, the digital model including a candidate profile of the surface; providing a candidate path for the relative movements based on the candidate profile; providing a candidate design to be created on the surface based on the candidate path; determining an actual profile of the surface; providing a modified path for the relative movements based on the actual profile; modifying the candidate design to provide the modified design to be created on the surface based on a deviation between the candidate path and the modified path; and controlling the industrial robot and the tool to create the modified design on the surface using the modified path for the relative movements.
Resumen de: DE102024126035A1
Die Erfindung betrifft ein Tibia-Implantat (2) für Gelenkersatz, welches aus Metalllegierung in einem additiven Fertigungsverfahrenhergestellt ist, mit einem Plateauabschnitt (4) und mit einem auf der tibiazugewandten Seite (8) des Plateauabschnitts (4) vorspringenden und sich davon in einer axialen Richtung (10) wegerstreckenden zapfen- oder kielförmigen Ankerabschnitt (6),; erfindungsgemäß wird vorgeschlagen, dass der Plateauabschnitt (4) auf seiner tibiazugewandten und mit Tibiaknochengewebe in Kontakt gelangenden Seite (8) eine dreidimensional poröse offenporige Oberflächenstruktur (14) mit in der axialen Richtung (10) hintergreifbaren Brücken, Stegen oder Wandbereichen aufweist, wobei die offenporige Oberflächenstruktur (14) eine erste Rauigkeit aufweist, und dass der Ankerabschnitt (6) anschließend an den Plateauabschnitt (4) in einem ersten axialen Ankerbereich (20) umfangsseitig eine in einer radialen Richtung (12) hinterschnittfreie, das heißt von hintergreifbaren Brücken und brückenbildenden Stegen freie Oberflächenstruktur (28) mit einer zweiten Rauigkeit aufweist, die geringer ist als die erste Rauigkeit, und dass der Ankerabschnitt (6) in der axialen Richtung (10) anschließend an den ersten axialen Ankerbereich (20) einen zweiten axial frei endenden axialen Ankerbereich (22) mit einer glatten Oberfläche aufweist.
Resumen de: US20260070284A1
An automated de-powdering system comprises a sleeve alignable with at least a portion of a build chamber and at least one actuator actuatable with respect to a build plate to move at least a portion of an additive manufacturing build out of the build chamber and into the sleeve. At least one support assembly is couplable to the sleeve and includes at least one support member insertable through the sleeve and into the additive manufacturing build. At least one agitation mechanism is couplable to at least one of the at least one support assembly or the sleeve and is actuatable to at least partially convey the powder build material away from at least one object of the additive manufacturing build. The support member is positioned to support the object in an absence of the powder build material around the object.
Resumen de: US20260070280A1
Polymers and formulated compositions are designed to have properties that allow their effective use in additive manufacturing processes, particularly for preparing articles wherein molten monofilament polymer is laid down on top of a previously deposited line of molten monofilament polymer.
Resumen de: US20260070285A1
Described is a design and process for additive manufacture of pincers or nippers. 3D printing allows the rapid and efficient manufacture of individually designed tools for increased customer satisfaction and reduction of waste and inventory. This invention overcomes problems with existing manufacturing practices such as waste, lack of variability and user ergonomics. The problem to be addressed is that these tools can be subjected to very high flexural pressures and the design must be unique. For example, even steel nipper handles can bend under such pressures, so polymer tools must be specially designed and not just copied from the existing design and technology. For the end user, the design and manufacture of the nipper handles can be configured to the users'specifications and produced individually and cost-effectively by innovative additive manufacturing techniques. The materials used for the handles are of a specially configured, individually 3D printed polymer material which can be various sizes, shapes and a variety of colors, as well as contours or individualized finger grooves for comfort and stability. For the manufacturer, custom pincers or nippers can be individually produced to a user's preferences with small changes in programming, inexpensive materials and no waste. The configuration of the handles can be a larger, lighter, and more comfortable in shape and size. Infill can be easily designed to reinforce high stress areas while reducing weight which monolithic
Resumen de: US20260070260A1
Decoration method and machine for the surface decoration of a ceramic article; the decoration machine comprises: a conveyor device having a metal support structure and a belt to support and transport the ceramic article through a printing station at least circa 2 metres long; a printing assembly comprising a plurality of digital printing devices; a detection unit to detect a quantity correlated with the moving speed of the conveyor device; comprising a reference integral with the belt, a detector to detect each passage of the reference and a processing device calculating the time interval between successive signals from the detector; and a control unit to adjust the mutual operation of the different digital printing devices as a function of the quantity correlated with the moving speed of the conveyor device so as to apply a defined pattern on the surface of the ceramic article to be decorated.
Resumen de: US20260070281A1
An additive manufacturing apparatus includes a first vertically-extending support leg, a second vertically-extending support leg, and a gantry supported on the first and second support legs. The additive manufacturing apparatus also includes a work table movably supported beneath the gantry, a print head supported on the gantry, and a trim head supported on the gantry with the print head.
Resumen de: US20260070286A1
A control section executes a heating process of applying heat to a plasticizing section to plasticize raw material, a standby process in which the plasticizing section stands by for a certain period of time after reaching a command temperature by the heating process, an opening process of opening an ejection amount adjustment section after the standby process, and a detection process of detecting a torque value applied to the ejection amount adjustment section after the opening process.
Resumen de: US20260070279A1
A system for performing quality analysis for multidimensional printing. The system includes a multidimensional printer, wherein the multidimensional printer comprises a printing head, a printing surface, an axis system and a scale, wherein the scale is arranged to measure weight applied on the printing surface; and a control unit operatively coupled to the multidimensional printer. The control unit is configured to control the printing head to extrude a printing material, to produce a printed object on the printing surface, obtain, from the scale, a weight of the printed object, and store the weight of the printed object in a memory associated with the control unit, compare the weight with a reference weight of the printed object, and control the printing head to stop extrusion of the printing material when the weight is equal to or exceeds the reference weight.
Resumen de: US20260070282A1
A composition useful in forming a structure in the form of a substantially interconnected vascular network. The composition includes a powder including a carbohydrate powder and an anti-caking agent, where the powder: has a granular form, and has a specific energy of less than 6 millijoules per milliliter (mJ/mL).
Resumen de: US20260070278A1
An extrusion system includes a system to pump a thermoplastic resin melt through an extrusion die, the thermoplastic resin including a polymer base whose rheological properties are modified using fillers, a perforation/embossed roll, and a resilient/pressure backing nip roll through which the extruded thermoplastic resin melt travels between the perforation/embossed roll and the resilient/pressure backing nip roll in a roll nip/station area, exiting the roll nip/station area and around the resilient/pressure backing nip roll and subsequently released from the resilient/pressure backing nip roll as a perforated film, film or fabric carrier supported perforated film, coex laminate, or cut into sheet
Resumen de: US20260070283A1
An additive manufacturing machine includes a first segment that is movable while the additive manufacturing machine deposits material, a second segment being configured to move relative to the first segment, and an extruder having a screw disposed within a barrel. The machine also includes a pump having an inlet and an outlet, a nozzle physically coupled to the second segment and configurable to: (i) translate along a first axis, along a second axis perpendicular to the first axis, and along a third axis and (ii) dispense the material, and a controller configured to control a speed of the screw of the extruder and a speed of the pump based on increases or decreases in movement of the nozzle along at least two axes of the first axis, the second axis, and the third axis, in operation during deposition of the material in an arc or corner.
Resumen de: US20260070019A1
According to one embodiment, a method, computer system, and computer program product for manufacturing a semi-permeable membrane for purifying a fluid through reverse osmosis is provided. The present invention may include calculating a shear stress exerted by the simulated fluid on semi-permeable membrane configurations; generating a membrane design for the semi-permeable membrane based on the modeling, wherein the membrane design comprises a material selected based on the calculated shear stress; and manufacturing a semi-permeable membrane of the selected material using a 3D printer, based on the membrane design.
Resumen de: US20260069746A1
The present invention provides methods for the preparation of synthetic bone grafts which are made of a composition comprising two matrixes, one ceramic including interlocked CDHA crystals, and another of one or more binder(s), the two matrixes being admixture. The method comprises the preparing of an ink composition, the 3D-printing, and the hardening of the binder and ceramic components, in this order.The resulting bone grafts, which are characterized by including the two matrixes in admixture, shows improved mechanical properties as well as excellent biological properties.
Resumen de: US20260069503A1
Method for 3D printing, comprising the following steps: providing a packaging (2′) having at least one recess (3′) for receiving a product (1′), wherein the shape of the recess (3′) corresponds at least in part to the shape of the product (1′) and wherein the recess (3′) forms a protuberance at the other side of the packaging (2′); providing a 3D printer with a print base (5′) having at least one recess (6′) for receiving the protuberance formed by the recess (3′) of the packaging (2′); inserting the packaging (2′) in the print base (5′) such that the protuberance formed by the recess (3′) of the packaging (2′) is received by the recess (6′) of the print base (5′); filling a print head (7′) of the 3D printer with at least one material for printing the product (1′); 3D printing the product (1′) inside the recess (3′) of the packaging (2′), wherein the part of the recess (3′) corresponding to the shape of the product (1′) serves as the mold and print support, resp., for those layers of the product (1′) which are 3D printed first. The method is performed with a system for 3D printing, comprising a packaging (2′) having at least one recess (3′) for receiving a product (1′), wherein the shape of the recess (3′) corresponds at least in part to the shape of the product (1′) and wherein the recess (3′) forms a protuberance at the other side of the packaging (2′); and a 3D printer with a print head (7′) and a print base
Resumen de: US20260069422A1
A tibia implant for joint replacement has a plateau section and an anchor section projecting from a tibia-facing side of the plateau section. The anchor section is insertable into a channel in a tibia bone. The plateau section has a first surface structure that is a porous open-pore surface structure with bridges, webs or wall regions that can be gripped from behind in the axial direction on the tibia-facing side that comes into contact with tibia bone tissue. The open-pore surface structure has a first roughness. The anchor section is connected to the plateau section in a first axial anchor region on the circumferential side has a surface structure with a second roughness that is lower than the first roughness. The anchor section has a second axially free-ending axial anchor region with a smooth surface in the axial direction adjacent to the first axial anchor region.
Resumen de: US20260069385A1
Dental appliances and associated systems are provided. In some embodiments, a dental appliance includes a shell configured to receive a plurality of teeth, the shell having a sidewall and an interproximal engagement structure extending from the sidewall into a space of an interproximal region between a first tooth and a second tooth of the plurality of teeth. The interproximal engagement structure can be configured to contact the first tooth and the second tooth concurrently. The interproximal engagement structure can be larger than the space of the interproximal region, such that the contact causes deformation of one or more of the interproximal engagement structure or the sidewall.
Resumen de: US20260069744A1
A method of printing a hydrogel scaffold is provided which includes providing a container containing an ink and a liquid that is immiscible with the ink; applying light from a light source to the ink to form a portion of the hydrogel scaffold; and applying light from a light source one or more additional times to produce one or more additional portions of the hydrogel scaffold.
Resumen de: US20260070857A1
A method and associated system of energy production, the method including providing core-shell thermite particles and combusting the core-shell thermite particles in a dispersed group to produce heat. The combustion of the core-shell thermite particles may proceed according to various core-shell thermite group combustion modes.
Resumen de: US20260070127A1
An additive manufacturing method includes a heating step, a manufacturing step, a cooling step, a cutting step, a first correction step, and a second correction step. In the heating step, a build table is heated to a preheating temperature. In the manufacturing step, a solidified layer is formed. In the cooling step, the build table is cooled to a cooling temperature. In the cutting step, a cutting process is performed on the solidified layer. In a first correction step executed after the heating step and before the manufacturing step, a positional misalignment of the base plate is measured, and a coordinate system used in the manufacturing step is corrected. In a second correction step executed after the cooling step and before the cutting step, a positional misalignment of the base plate is measured, and a coordinate system used in the cutting step is corrected.
Resumen de: US20260070123A1
A cylindrical sintered material made of metal, in which one of an inner peripheral surface and an outer peripheral surface of the sintered material includes: a plurality of helical teeth arranged in parallel along a circumferential direction of the sintered material; and a sizing mark provided on at least a part of a tooth bottom surface, a tooth surface, and a tooth tip surface of each of the helical teeth, the helical tooth has a tooth profile error less than or equal to 6 μm, and the helical tooth has a tooth trace error less than or equal to 27 μm.
Resumen de: US20260070126A1
The present invention relates to a manufacturing system 1 for manufacturing a workpiece 26 by exposing powder material and/or a workpiece element. The manufacturing system 1 comprises at least one light source 4 for irradiating the powder material 18 and/or workpiece element provided in a processing chamber 12; a light path 14 generated by the light source 4 which extends through a protective glass 10 into the processing chamber 12 of the manufacturing system 1, wherein the protective glass 10 is provided for protection against damage and/or contamination. At least one exposure device L1-L9 is provided for exposing an object plane 30 associated with the protective glass 10 of the manufacturing system 1. The exposure device L1-L9 encloses the protective glass 10 at least partially, preferably completely, and comprises a plurality of similar light-emitting diodes, LEDs for homogeneous illumination.
Resumen de: DE102024126112A1
Die Erfindung betrifft ein einteiliges, additiv gefertigtes Bauteil (1, 1'), umfassend- ein erstes Element in Form entweder a) eines Zahnrades (2) mit einem Zahnradgrundkörper (2a) und mit einer Anzahl an am Zahnradgrundkörper (2a) angeordneten Zähnen (2b) oder b) eines Ausgleichsmassenelements (20), weiterhin- ein zweites Element in Form einer Welle (3) und- ein drittes Element in Form eines Lagerinnenringes (4),wobei der Zahnradgrundkörper (2a) oder das Ausgleichsmassenelement (20) an einem ersten Ende (5a) der Welle (3) angeordnet ist und der Lagerinnenring (4) ein zweites Ende (5b) der Welle (3) umschließt oder sich daran anschließt, wobei die Welle (3) aus einem ersten Material gebildet ist und der Lagerinnenring (4) aus einem zweiten Material gebildet ist, wobei in Fall a) der Zahnradgrundkörper (2a) aus dem ersten Material gebildet ist und die Zähne (2b) aus einem dritten Material gebildet sind, oder in Fall b) das Ausgleichsmassenelement (20) aus einem dritten Material gebildet ist, und wobeidas erste Material, das zweite Material und das dritte Material sich voneinander unterscheiden.
Resumen de: DE102025134631A1
Es ist möglich, einfach und kostengünstig einen Leisten entsprechend der Fußform und den Wünschen eines jeden Kunden anzubieten.Ein Leisten L umfasst einen Leistenkörper 10 mit einer Außenoberflächenform, welche einem vorgegebenen Standard-Fußmodell entspricht, und mit einem Zusatzteil 20, welches die Außenoberflächenform des Leistens L zu einer Form verändert, welche sich von der Form des Standard-Fußmodells unterscheidet, indem das Zusatzteil 20 an dem Leisten 10 befestigt wird.
Resumen de: US20260069290A1
A surgical device includes a first body component including at least one insert embedded therein and a second body component including a patient-specific surface. The first body component includes a first material and the at least one insert includes a second material. The first body component defines at least one first hole and the second body component defines at least one second hole. The second body component is configured to be coupled to the first body component such that the at least one first hole and the at least one second hole are aligned when the first body component is coupled to the second body component to define at least one continuous fixation hole sized and configured to receive an elongate fixation device at a predetermined location.
Resumen de: US20260069260A1
A medical device includes an operating member, a hub, and an end effector. The operating member includes an actuation portion. The hub includes a channel receiving the actuation portion of the operating member. The actuation portion of the operating member moves within the channel. The end effector is movable between a closed configuration and an open configuration. Distal extension of the operating member transitions the end effector to the open configuration, and proximal retraction of the operating member transitions the end effector to the closed configuration. The medical device is formed through an additive manufacturing process.
Resumen de: US20260069145A1
A method of generating a 3D model of a body part includes scanning the body part with a 3D scanner; during the scanning step, generating, with an augmented reality user interface, an augmented reality view of said body part, wherein the augmented reality view differentiates between portions of the body part that have already been scanned and portions that have not yet been scanned; with guidance from the augmented reality view, completing the scan; and generating the 3D model based on data received from the scan. The augmented reality view is displayed on a practitioner-facing screen incorporated into the scanning device. The method may further include imaging the body part with a thermal imager and overlaying thermal scanning data onto the 3D model to thereby generate a distribution map of thermal sensitivity on the 3D model. The design is then generated with holes situated to maximize thermal comfort.
Resumen de: US20260071827A1
A multiphase heat exchanger includes an evaporator, a condenser, and a liquid-return portion extending between the evaporator and the condenser, such that microstructured wicking structures are electrochemically integrated into one or more of these components. In an evaporator, the wicking structures promote capillary-driven liquid transport and assist in displacing vapor bubbles from the evaporator to improve two-phase cooling performance. By tailoring the geometry, location, and density of the wicking features, localized “dryouts” are mitigated thereby ensuring efficient heat transfer. Wicking structures may be also positioned along sidewalls, at channel bases, or on fin surfaces to maintain fluid distribution and enhance phase-change efficiency. Electrochemical additive manufacturing (ECAM) enables precise, layer-by-layer fabrication of these structures, allowing customization for different flow regimes and heat flux profiles. The resulting device supports higher thermal loads, improved reliability, and consistent manufacturing for advanced heat transfer/cooling applications.
Resumen de: US20260071632A1
A single-shaft unitary centrifugal rotor for an air cycle machine (ACM), having: a body extending from a body forward end to a body aft end; a flange intermediate the body forward and aft ends; a first rotor extending forward from the flange by a first axial length to a first rotor end at or near the body forward end, the first rotor defining a first hub and a first blade stage extending outwardly from the first hub; a second rotor extending aft from the flange by a second axial length to a second rotor end at or near the body aft end, and defining a second hub and a second blade stage extending outwardly from the second hub; a passage defined through the unitary rotor, between the body forward and aft ends, that receives a drive shaft.
Resumen de: US20260071174A1
A photocrosslinkable bioink composition for three-dimensional printing is provided. The photocrosslinkable bioink composition includes: an aqueous solution of a recombinant spider silk protein comprising the NT2RepCT-MaSp2 sequence; a polymer comprising pendant groups reactive under visible light-initiated radical polymerization; and a photoinitiator system configured to generate free radicals upon exposure to visible light. The polymer is selected from the group consisting of methacrylated gelatin, methacrylated hyaluronic acid, methacrylated chitosan, polyethylene glycol diacrylate, and combinations thereof. The photoinitiator system is selected from the group consisting of tris(bipyridine)ruthenium(II) chloride with ammonium persulfate, eosin Y with triethanolamine, riboflavin with ammonium persulfate, and lithium phenyl-2,4,6-trimethylbenzoylphosphinate. The photocrosslinkable bioink composition is curable under visible light to form a biocompatible hydrogel structure suitable for cell culture or implantation.
Resumen de: US20260068997A1
It is enabled to easily and inexpensively provide a last in accordance with a foot shape and a request of each customer.A last L includes a last body 10 having an outer surface shape corresponding to a predetermined standard foot model and an additional part 20 that changes the outer surface shape of the last L to a different shape from a shape of the standard foot model by fixing the additional part 20 to the last 10.
Resumen de: US20260071166A1
A 3D perfusion bioreactor system and method for more accurate modeling of in vivo environmental conditions and cellular behaviors. In some embodiments, the bioreactor includes a cavity for containing culture media and cells. A plurality of capillary tubes cross the cavity. Artery capillary tubes may transport culture media received from an inlet of the bioreactor, across the cavity, and into a return compartment. Vein capillary tubes may transport culture media from the return compartment, across the cavity, and to an outlet of the bioreactor. Metabolites may diffuse from the capillary tubes into the cavity for cellular consumption, and metabolic waste may diffuse from the cavity into the capillary tubes for removal from the bioreactor. In some embodiments, culture media discharged from the outlet may be processed via a waste treatment device and returned to the inlet.
Resumen de: US20260071344A1
Described herein are methods of fabricating heat exchangers and heat source assemblies using electrochemical additive manufacturing (ECAM). A method may comprise submerging a build plate (e.g., a base and/or a heat source) and a printhead into an electrolyte and selectively activating an electrode subset of the printhead thereby electrochemically depositing a heat-exchanging portion. In the final assembly, the average coefficient of thermal expansion (CTE) of the base is closer to that of the heat source than the average CTE of the heat-exchanging portion. The combination of the heat-exchanging surfaces and the base forms openings (e.g., non-linear channels) for directing a heat transfer fluid through the heat exchanger. The openings may extend to the base and/or to the heat source for direct contact. For example, any dimension of each extension end may be less than a critical dimension, determined by adhesion, CTE mismatch, and temperature fluctuations.
Resumen de: US20260071187A1
A bioink formulation for digital light processing bioprinting comprising a mixture of a biocompatible cleavable polymer precursor, a biocompatible non-cleavable polymer precursor, and a photoinitiator is described. Three-dimensional (3D) objects prepared using these bioink formulations are also described. In addition, a method of 3D bioprinting is described. The method includes providing a bioink formulation in a 3D bioprinter vat; repeatedly photoactivating the biocompatible photoactive polymer precursors in the 3D bioprinter vat on a build plate immersed in the vat to form a 3D bioprinted object comprising polymers having a series of predefined shapes across the vertical direction based on a set of sliced images; and treating the 3D bioprinted object with an agent that cleaves chemical bonds within the cleavable polymer.
Resumen de: US20260071077A1
The present invention relates to novel photoinitiators having improved reactivity and surface curing and/or lower post-cure yellowing and to photopolymerization compositions containing said photoinitiators. The invention also concerns a process for the photopolymerization of compositions comprising said photoinitiators as well as their use in articles of manufacture, including printed, coated, and fabricated assemblies.
Resumen de: US20260071067A1
Polymerizable liquids are described herein which, in some embodiments, can produce 3D printed articles of high resolution and desirable mechanical properties. In one aspect, a polymerizable liquid comprises an acrylate component, a polymeric additive, and a monomeric curing agent, wherein the acrylate component and monomeric curing agent are copolymerizable upon exposure to light. In being copolymerizable, the acrylate component and monomeric curing agent can form a copolymer. As described father herein, the monomeric curing agent can enable further reaction of the copolymer with one or more crosslinking species to link the copolymer with one more polymeric networks.
Resumen de: US20260071050A1
A biodegradable polymer composition comprising a biodegradable polymer and a thermally stable sugar. The biodegradable polymer composition has markedly improved mechanical, thermal and biodegradation properties when compared to the biodegradable polymer itself.
Resumen de: US20260070843A1
The present disclosure relates to shaped cementitious compositions that comprise a substrate for aquatic flora and/or fauna attachment; methods for providing a substrate for aquatic flora and/or fauna attachment comprising depositing a shaped cementitious composition into a body of water; and methods for making a shaped cementitious composition. The shaped cementitious composition is formed from a pourable cementitious mixture comprising: (a) a pozzolan comprising a natural pozzolan and/or a manmade pozzolan; (b) MgO and/or Mg(OH)2; (c) an aqueous solution comprising one or more accelerants; and (d) at least one aggregate. In some cases, the MgO and/or Mg(OH)2 of (b) is included in the aqueous solution of (c). And, in various cases, the manmade pozzolan comprises a slag.
Resumen de: US20260070777A1
The present disclosure provides a microstructured article including a thermoplastic polymer shaped to have a curve. At least a portion of the curve includes a microstructured surface of utilitarian discontinuities and the microstructured surface includes peak structures and adjacent valleys. The peak structures and the curve are formed of a single piece of the thermoplastic polymer. A method of making the microstructured articles is also provided including a) obtaining a tool shaped to include at least one of a protrusion or a concavity; b) disposing a microstructured film on at least a portion of the tool including the protrusion and/or the concavity; and c) thermoforming a single piece of thermoplastic polymer onto the tool to form a microstructured article shaped to include a curve. The curve is an inverse of the protrusion or the concavity of the tool.
Resumen de: US20260070325A1
A system for printing on a substrate can comprise a conveyor that is configured to move the substrate along a substrate movement axis. The system can further comprise at least one print head array. Each print head array has a plurality of print heads, each print head having a respective orientation axis. The plurality of print heads can have at least a first print head and a second print head, wherein the orientation axis of the first print head is angularly offset from the orientation axis of the second print head. The first print head can be offset from the second print head along the substrate movement axis.
Resumen de: US20260073090A1
Methods, systems, and apparatus, including computer programs encoded on a computer storage medium, for an additive manufacturing heat transfer simulation process. The process includes converting a model of an object into a node representation of the object and generating a network graph of the object based on the node representation. For each block of nodes in the node representation the process includes: applying a simulated heat to the block of nodes by multiple causation functions, performing an energy balance of heat flow into and out of the node to determine the energy stored in the node, and estimating a diffusion of heat to other nodes using physics based edge weights between nodes in the network graph. The process includes generating a representation of an estimated heat distribution within the object.
Resumen de: US20260076208A1
Provided are manufacturing method of electromagnetic shielding structure and packaging structure. Manufacturing method includes providing substrate having first element; and forming shielding portion on substrate by using 3D printing technology, wherein shielding portion is arranged at periphery of first element; and the step includes: constructing three-dimensional model of shielding portion; identifying target position on substrate; and laying printing material at target position based on three-dimensional model to pre-form shielding portion; injecting molding compound onto substrate to form encapsulation that encapsulates first element and shielding portion, wherein molding compound undergoes crosslinking reaction with printing material; grinding encapsulation so that shielding portion is exposed from surface of encapsulation; and forming metal layer on surface of encapsulation, wherein metal layer is electrically connected to shielding portion, and at least one of metal layer and shielding portion has grounding properties.
Resumen de: US20260075767A1
A method of fabricating a multiphase heat exchanger for thermal coupling to a heat source is provided. The method includes submerging a build plate having a deposition surface into an electrolyte, the deposition surface comprising at least one of an evaporator base, a condenser base, or a liquid-return base. A printhead comprising pixelated electrodes and electrode-array drivers is submerged proximate to the deposition surface. A subset of the pixelated electrodes is selectively activated to generate an ionic flow through the electrolyte between the electrode subset and a portion of the deposition surface, thereby electrochemically depositing wicking structures on the base surface. Any two adjacent wicking structures positioned on the evaporator base are spaced apart by an average pitch selected to maintain a heat-transfer fluid, in a liquid phase, in contact with the evaporator base during operation of the multiphase heat exchanger.
Resumen de: US20260075710A1
Additive manufacturing techniques are described. In one example, a method includes printing, using a printable copper ink, a layer of copper onto a substrate, applying a photonic sintering process to cure the layer of copper to produce a cured layer of copper, repeating, in an alternating manner, the printing and the photonic sintering process to individually print and cure a plurality of additional layers of copper over the cured layer of copper to produce a copper pillar having a selected height, and after forming the copper pillar to the selected height, depositing, onto the substrate, a dielectric material at least partially surrounding the copper pillar.
Resumen de: US20260075445A1
The technologies described herein are generally directed to the autonomous onsite remediation of adverse conditions for network infrastructure in a fifth generation (5G) network or other next generation networks. For example, a method described herein can include detecting a condition of a component of network equipment at a site that has a likelihood of indicating a defined adverse event that has at least a threshold likelihood of occurring. The method can further include, in response to detecting the condition, facilitating generating a graphical image of the component. Further, the method can include, based on information determined from the graphical image, remediating the condition.
Resumen de: AU2026201217A1
A patient interface comprises a support structure and a seal-forming structure. The support structure is arranged to support the sealing portion and is configured to connect to the frame. The sealing portion comprises textile and is attached to the support structure along an outer perimeter of the sealing portion such that in use the sealing portion may be in tension due to reactive stress of the support structure and/or a resilient stretch characteristic of the textile such that the sealing portion exerts a force against the patient’s face. eb e b
Resumen de: AU2024330613A1
The present disclosure relates to a method for producing a textile material (1), in particular a shoe upper, comprising the steps: providing a shaping carrier (2), in particular a last; providing a plasticizing unit (3) for melting a polymer composition at a first temperature to provide a molten polymer composition; providing a depositing unit (4) comprising a dosing head (5) which comprises at least one nozzle (6); applying the molten polymer composition via the at least one nozzle (6) on the shaping carrier (2) in form of a filament (7) forming a plurality of loops (8) on the shaping carrier (2). During step d., the depositing unit (4) and/or the shaping carrier (2) are in a first movement moved relative to each other such that the at least one nozzle (6) moves along a drive path which runs on the shaping carrier (2). During forming each loop (8) the dosing head (5) and/or the at least one nozzle (6) is additionally moved in a second movement being different from the first movement along a loop depositing path with a path length such that the length of each loop (8) formed on the carrier is larger than the path length of the depositing path.
Resumen de: AU2024331791A1
Disclosed herein is a method for producing a shoe comprising the steps: a. providing an upper assembly (2), wherein the upper assembly comprises an upper (3) being mounted on a carrier (4), wherein the upper (3) comprises a bottom section (5) being made from a thermoplastic polymer upper material; b.providing a sole molding unit (6), wherein the sole molding unit defines a cavity; c.Inserting the upper assembly (2) at least partially into the cavity; introducing a midsole polymer composition comprising a molten thermoplastic polymer midsole material which has a melting temperature being equal or higher than the melting temperature of the thermoplastic polymer upper material into the cavity and foaming the molten thermoplastic polymer midsole material inside the cavity to provide a foamed midsole and to establish a material-bonded connection between the upper (3) and the foamed midsole (8). Furthermore, a shoe and a show production system is disclosed.
Resumen de: US20260070128A1
A friction stir additive manufacturing system is provided. In one aspect, the system includes a spindle configured to rotate about a central axis. The spindle includes a plurality of spindle channels extending from a first end of the spindle to a second end of the spindle. The system also includes a plurality of sleeves, each of the sleeves configured to be received within a corresponding spindle channel. Each of the sleeves includes a hollow interior. The system also includes a plurality of wires. The system also includes a feeding system configured to feed each of the plurality of wires through a respective sleeve or the plurality of sleeves as the spindle rotates. The plurality of wires are configured to soften as they are fed through the plurality of sleeves and the spindle rotates.
Resumen de: WO2024231790A1
A method and apparatus are set forth for volumetric additive manufacturing (VAM) wherein light rays that are used to determine tomographic projections are modelled using ray tracing, in order to account for projector non-telecentricity and etendue in all three dimensions. The path of rays from each light source (e.g. pixel) are computed as they propagate through the VAM system. Optical effects such as refraction, transmission loss, absorption, etendue, and non-telecentricity are intrinsically accounted for via ray tracing. Using these rays, the required dose to solidify the photosensitive resin is computed.
Resumen de: AU2024266309A1
The disclosure relates to parallel plate and manifold assemblies for heat exchangers. In some examples, a plate assembly includes at least one plate. The plate includes a first side defining a side of a conditioning channel, where the first side is configured to receive desiccant. The plate also includes a second side that is opposite the first side. The second side defines a side of an exhaust channel. In addition, at least one of the first side and the second side include a plurality of support structures that are distributed in a predetermined pattern and are configured to maintain a predetermined width of the respective conditioning channel or exhaust channel.
Resumen de: EP4706586A1
The present invention relates to a program for designing an orthodontic appliance. The method comprises: displaying, on a screen, the insertion path for determining the insertion direction of the appliance (S01); designating a tooth targeted for the insertion path setting (S02); setting the insertion path for the designated tooth in an arbitrary direction (S03); displaying, on the screen, undercuts of each tooth caused by the set insertion path (S04); calculating and storing depth values of the undercuts for each tooth (S05); and calculating and storing the total sum of undercut volumes for each tooth according to the insertion path (S06).
Resumen de: US20260044132A1
A device comprises an array of voxels of solidified material defining at least one scan path, along which an error in a variable dielectric quantity at a target voxel is distributed by successive deposition and solidifying of a selected material along the scan path, in accordance with a prescription for the device. The prescription defines the dielectric quantity over the array of voxels.
Resumen de: CN121127613A
The invention discloses a nickel-based alloy composition for additive manufacturing and an additive manufactured part made of the nickel-based alloy. The nickel-based alloy composition comprises 36 to 89 wt% of nickel; 4% to 9% by weight of aluminum; from 6% to 14% by weight of cobalt; 4 wt% to 26 wt% chromium; 2% to 5% by weight of tantalum; and 3% to 13% by weight of tungsten. The nickel-based alloy composition provides an additive manufactured component having a crack density of less than 4.0 cracks/mm2.
Resumen de: GB2643887A
A fusing fluid for the print and fuse manufacture of three-dimensional objects from particulate build material comprises or a non-aqueous carrier liquid such as isoparaffins or butyl_benzoate; a radiation absorber such as carbon black; and optionally a dispersant and/or one or more further additives; wherein the fusing fluid has a boiling range lying within a temperature window of 150 to 350 °C with a boiling range width of 70 °C or lower. Further provided: a materials kit comprising the fusing fluid and a particulate build material, optionally the build material comprises a flame retardant component; method and apparatus for the print and fuse manufacture of a 3D object utilizing the kit; use of the fusing fluid or of the kit in a print and fuse method; and a resulting object having improved flame retardancy.
Resumen de: EP4706850A1
The invention refers to a liquid-cooling device (1) for laser head nozzles, wherein the device comprises: a body (18) having a central opening (6) configured for accommodating a nozzle (7) of a laser head, and a channel (5) formed internally in the tubular body (18) and extending at least in part around the central opening (6), and an input port (9) and an output port (10), both, fluidly communicated with the channel (5) for circulating a cooling liquid through the perimetral channel (5). The invention also refers to a laser head nozzle assembly (15) comprising the liquid-cooling device (1) and a nozzle (7) of a laser head accommodated in the central opening (6) of the tubular body (18), such that the nozzle (7) and the liquid-cooling device (1) are thermally coupled, in order to reduce temperature of the nozzle (7) when a cooling liquid is circulated through the channel (5) of the liquid-cooling device (1).
Resumen de: US2025009476A1
The present disclosure provides polymeric materials comprising semicrystalline sulfur-containing polymers, methods and curable compositions for making the same, and orthodontic appliances made from said polymeric materials.
Resumen de: WO2024227841A1
A multiple-axis hybrid manufacturing machine tool (1) for manufacturing a three-dimensional part, in particular a micro-part and/or a macro-part with a micro-feature. The multiple-axis hybrid manufacturing machine tool (1) extends in a first direction (1001), a second direction (1002) and a third direction (1003) that are perpendicular to each other. The multiple-axis hybrid manufacturing machine tool (1) comprises a vat photopolymerization three- dimensional printing module (100), a container module (200), a CNC processing module (300) and a platform module (400). The vat photopolymerization three-dimensional printing module (100) comprises a movable illumination device (101). The container module (200) comprises at least one photopolymer receiving container (201) for receiving a photopolymer material in liquid phase. The CNC processing module (300) comprises a movable spindle (301) for holding a milling tool (10) and/or a measuring tool. The platform module (400) comprises a movable build platform (401) that is arranged and configured for vat photopolymerization three- dimensional printing of a work piece and/or on a work piece, and preferably also for CNC processing of a work piece, on the build platform (401).
Resumen de: WO2024228032A1
Disclosed are tissue and/or tumour models or constructs that are able to mimic an in vivo environment, such a cancer or diseased tissue microenvironment. The disclosure also extends to methods of making such models or constructs, kits for making the described models or constructs, cell culture media and uses of the media, models or constructs.
Resumen de: WO2024227484A1
The invention relates to a tool half (1) of a casting tool, having a three-dimensional body (K) for connection to a clamping plate of a casting machine and a first side (2) of the body (K) for connection to the clamping plate of the casting machine. Furthermore, at least one cooling channel (6) is provided for cooling. The tool half (1) has at least one sensor unit (7), optionally furthermore at least one sensor contact (8) for the at least one sensor unit (7), wherein the at least one sensor unit (7), optionally furthermore the at least one sensor contact (8), is/are formed together with the body (K) in an additive multi-material printing method using different materials. The invention also relates to an additive manufacturing method for producing such a tool half.
Resumen de: CN121039179A
A composition for forming a solid object comprising: 10-70 wt% of one or more compounds A, each compound A comprising a poly (trimethylene ether) moiety and one or two (meth) acrylate groups, wherein the poly (trimethylene ether) moiety is introduced into compound A by reaction of a poly (trimethylene ether) glycol having a number average molecular weight Mn of 500 to 5000 Daltons and a polydispersity of at least 1.5; 30-90 wt% of one or more (meth) acrylate compounds B different from Compound A, where each compound B comprises a single (meth) acrylate moiety, and where the one or more (meth) acrylate compounds B, if polymerized together, have a Tg of greater than 30 DEG C; and 0-25 wt% of a further compound C different from compounds A and B; wherein the viscosity of the composition is less than 5 Pa.s.
Resumen de: CN121039189A
The invention relates to a method for producing thermoplastic polyurethane powder by precipitation polymerization. The invention relates to a method for producing a thermoplastic polyurethane powder by precipitation polymerization, comprising the following steps: i. Providing A) a solvent mixture comprising at least one first aprotic solvent A1) having a relative permittivity of 3 to 20 and at least one second aprotic polar solvent A2) having a relative permittivity of at least 24; b) at least one polyol having a molar mass of 60 g/mol to 250 g/mol; c) at least one diisocyanate; ii. Reacting the polyol B) with the diisocyanate C) in the solvent mixture A) at a temperature of up to 150 DEG C to obtain a thermoplastic polyurethane, the thermoplastic polyurethane precipitating as a solid in the solvent mixture A) and forming a dispersion; iii. Removing the solvent mixture; and iv, drying the thermoplastic polyurethane to obtain thermoplastic polyurethane powder, wherein the thermoplastic polyurethane powder has a mass average molar mass Mwgt; the molecular weight is 35000 g/mol; the allophanate content is 1t; 0.25 mol%, based on the total thermoplastic polyurethane powder; lt; a particle fraction gt with a particle size of 0.500 mm; 25.0 wt.%, based on the total thermoplastic polyurethane powder, and/or a ratio lt of the average centrifugal molar mass Mz to the average mass molar mass Mw; 4.0, 0.
Resumen de: WO2024227544A1
The invention relates to a heat exchanger (1) for a fluidically separated heat exchange between a first fluid and a second fluid. An increased efficiency as well as a mechanical stability of the heat exchanger (1) are achieved in that the heat exchanger (1) has an additively manufactured heat exchanger block (2) with first flow channels (3) for the first fluid and second flow channels (5) for the second fluid as well as first fluid chambers (7) for the first fluid and second fluid chambers (8) for the second fluid, wherein at least one of the second flow channels (5) is guided through at least one of the first fluid chambers (7) to at least one of the second fluid chambers (8). The invention additionally relates to a system (100) comprising a feed device (101), a circuit (102), and such a heat exchanger (1) and to a tank system (200) comprising such a system (100).
Resumen de: WO2024227533A1
The invention relates to a radically polymerisable compound represented by a structure of formula 1: PG-Sp-PCA-Sp- OG (O) NH-K-NHC (O) O-Sp-PCA-Spn-PG (formula 1), wherein PG = in each case independently selected from a radically polymerisable group, R1 = selected from hydrogen, a C1-C8 alkyl group, an aryl group and an araliphatic group having C6-C8 carbon atoms, R2 = selected from hydrogen, a C1-C4 alkyl group; Sp = in each case independently of one another a spacer group selected from unbranched and branched alkylene with C1-C19 carbon atoms, which may additionally contain oxygen, sulfur and/or -OOC- in the carbon chain, or Sp is absent; PCA = in each case independently of one another a polycyclic group; K = an aliphatic acyclic, saturated or unsaturated unit having C1-C15 carbon atoms, an aliphatic cyclic, saturated or unsaturated unit having C3-C15 carbon atoms, or an aromatic or araliphatic unit having C6-C14 carbon atoms; n = 1 to 9. The invention also relates to a process for preparing such a compound, a radically polymerisable composition containing such a compound, the use thereof and a cured dental material.
Resumen de: EP4706965A2
The present disclosure relates to a sole for an article of footwear, the sole comprising: a three-dimensional mesh comprising: a plurality of interconnected unit cells, each interconnected unit cell comprising a plurality of struts defining a three-dimensional shape and a plurality of nodes at which one or more struts are connected; and a mechanically anisotropic region comprising: a first lattice shear modulus measured in a forward direction, and a second lattice shear modulus measured in a rearward direction opposite the forward direction and greater than the first lattice shear modulus.
Resumen de: EP4706964A2
Verfahren zur additiven Fertigung wenigstens eines Bauteils (2) definierter Bauteileigenschaften, umfassend die Schritte:- Bereitstellen wenigstens eines zertifizierten Datensatzes (4), welcher von einem Bereitsteller für einen additiven Fertigungsprozess wenigstens eines bestimmten Bauteils (2) definierter Bauteileigenschaften zertifizierte bauteilspezifische Parameter und/oder anlagenspezifische Parameter und/oder prozessspezifische Parameter beinhaltet,- Anwenden wenigstens eines additiven Fertigungsprozesses zur additiven Fertigung wenigstens eines bestimmten Bauteils (2) definierter Bauteileigenschaften auf Grundlage des wenigstens einen zertifizierten Datensatzes (4).
Resumen de: EP4708100A1
Systems, apparatus, computer-readable medium, and associated methods for secure additive manufacturing are disclosed. An example apparatus includes an inbound one-way data diode (21) to receive, authenticate, and route an inbound file (215) in a first direction within a secure additive manufacturing system (200), the inbound one-way data diode (210) unable to transmit data out of the secure additive manufacturing system (200) in a second direction. The example apparatus includes an additive manufacturing machine (110) to build a part, the build of the part adjusted by the inbound file (215) when authenticated by the inbound one-way data diode (210). The example apparatus includes an outbound one-way data diode (220) to authenticate and transmit outbound data (225) in the second direction to an external system outside the secure additive manufacturing system (200), the outbound one-way data diode (220) unable to transmit data into the secure additive manufacturing system (200) in the first direction.
Resumen de: EP4706943A1
An additive manufacturing apparatus and method are disclosed, with a first horizontal work plane, a second vertical work plane, a gantry movable above said first work plane along a horizontal axis, a dispensing unit configured to dispense a bead of material and movable on said gantry along a vertical plane, and one, two, three, or more support portions arranged in said first work plane, one after the other along said horizontal axis and movable with at least one component of vertical motion, independently of one another. Thus, as the dispensing unit gradually forms, layer by layer, a workpiece cantilevered from said second work plane, the support portions are raised one after the other to support positions where each of them contributes to supporting the weight of the workpiece being formed, to produce long parts without increasing the height of the production apparatus.
Resumen de: EP4706849A2
La présente invention a pour objet un dispositif de refroidissement (20) d'un système (10) de fabrication additive d'une pièce métallique (11) par superposition de cordons métalliques (12) en fusion sur un substrat (14),le dispositif de refroidissement (20) comprenant au moins un refroidisseur (22) mobile,le refroidisseur (20) intégrant au moins en partie un circuit de refroidissement (24) du dispositif de refroidissement (20), le circuit de refroidissement (24) étant parcouru par un fluide de refroidissement,le refroidisseur (20) comprenant au moins une paroi configurée pour être en regard des cordons métalliques (12) superposés sur le substrat (14),le dispositif de refroidissement (24) comprenant au moins un insert métallique (26) qui couvre au moins une partie de la paroi du refroidisseur (22),l'insert métallique (26) étant fait dans un métal dont le point de fusion est inférieur à 700°C.
Resumen de: EP4708830A1
This application provides a hinge cover, a foldable-screen terminal, and a method for manufacturing a hinge cover, and relates to the field of foldable-screen terminal technologies, to resolve a problem that when a hinge cover is lightweight, an imprint is prone to be formed on an outer surface, affecting overall aesthetics. The hinge cover includes a hinge cover body and a threaded column. The hinge cover body has an inner surface. The threaded column is disposed on the inner surface of the hinge cover body, and the threaded column is configured to be connected to a structural member of a foldable-screen terminal. Material yield strength of the hinge cover is greater than 300 MPa. The hinge cover provided in this application is applied to the foldable-screen terminal.
Resumen de: EP4706944A1
The present invention relates to a light uniformity adjustment method and apparatus, a device, and a storage medium. The light uniformity adjustment method comprises: obtaining a first captured image, wherein the first captured image is obtained by an acquisition device photographing a first display image displayed on a printing screen; calculating a weighted variance value of the first captured image to obtain a first numerical value, and determining an initial current according to the first numerical value; obtaining a second captured image, wherein the second captured image is obtained by the acquisition device photographing, under the initial current, a second display image displayed on the printing screen; and calculating a weighted variance value of the second captured image to obtain a second numerical value, and determining initial light intensity of the printing screen according to the second numerical value. According to the method provided by the present application, uniformity calibration can be performed on the light intensity of a full-frame, thereby ensuring the details and precision of a fine model.
Resumen de: EP4706587A1
The method for designing a transparent orthodontic appliance and attachment for tooth alignment according to the present invention has been devised to solve the above technical problems. It is a method for designing an orthodontic appliance using a computer, comprising: a step (S01) of designing the shape of an attachment to be affixed to the surface of a tooth model; a step (S02) of designing the inner surface shape of the transparent orthodontic appliance corresponding to the attachment designed in step S01; and a step (S03) of outputting the transparent orthodontic appliance by means of a 3D printer. The attachment comprises: two pressure surfaces (101) formed to face each other; two inclined surfaces (201) formed to be inclined toward each other while contacting the two pressure surfaces (101); a top surface (301) contacting the edges of the two pressure surfaces (101) and the two inclined surfaces (201); and an attachment surface (401) affixed to the surface of a tooth. This configuration serves as the technical means for solving the problem.
Resumen de: US2020114576A1
A transport device (106) includes a first volume (110) to receive a build material and a second volume (108) to contain an object created by an additive manufacturing system (100). The transport device (106) is receivable by a 3D printer (102) of the additive manufacturing system, and the 3D printer to build the object in the second volume. The transport device (106) is receivable by an extracting and supply device (104). The extracting and supply device is to extract the object from the second volume and to supply the build material to the first volume.
Resumen de: ES3013314A1
Method for manufacturing molds for manufacturing paraffin blocks for TMA, comprising at least the steps of: a) obtaining a base mold by 3D printing, wherein said base mold comprises a determined number of first holes, forming a matrix; b) filling the base mold with a mixture, at room temperature, of a silicone in a semi-liquid state and a catalyst in a liquid state; c) allowing the mixture of silicone and catalyst to solidify at room temperature until a second mold is obtained comprising a plurality of protrusions corresponding to the first holes of the base mold, and demolding said second mold from the base mold. (Machine-translation by Google Translate, not legally binding)
Resumen de: WO2026046385A1
A material bin, a 3D printing feeding apparatus, and a 3D printing device. The material bin comprises a housing, a base, and an airflow partition plate; the housing defines an accommodating cavity; the base is accommodated in the accommodating cavity; the base is provided with an accommodating recess and a heating cavity, the accommodating recess is formed on the upper side of the base and is used for accommodating parts of a plurality of material trays, the heating cavity is provided on the lower side of the base, and a fan and a heating member are accommodated in the heating cavity; the airflow partition plate is connected to the bottom wall of the accommodating recess, the airflow partition plate divides the accommodating recess into at least two material tray partitions, the material tray partitions are used for placing the material trays, and the material tray partitions are provided with hot air holes; and at least two heating flow channels are formed on the side of the base facing away from the airflow partition plate, one end of each heating flow channel is in communication with the heating cavity, the other end of each heating flow channel is in communication with the corresponding hot air hole, and a valve is provided on each heating flow channel.
Resumen de: US20260061543A1
A method of manufacturing a cutting tool is disclosed. The cutting tool may be additively printed. This may allow the formation of a complex design with varying surfaces of the cutting tool in differing configurations and orientations. Then, a rake face and a flank face of the cutting tool may be grinded to form a cutting surface.
Resumen de: WO2025027517A1
The present invention relates to photoinitiators of formula (I) having improved performances and to their use in photopolymerization compositions. The invention also relates to a process for the photopolymerization of compositions comprising said photoinitiators as well as their use in articles of manufacture, including printed, coated, and fabricated assemblies.
Resumen de: WO2026046385A1
A material bin, a 3D printing feeding apparatus, and a 3D printing device. The material bin comprises a housing, a base, and an airflow partition plate; the housing defines an accommodating cavity; the base is accommodated in the accommodating cavity; the base is provided with an accommodating recess and a heating cavity, the accommodating recess is formed on the upper side of the base and is used for accommodating parts of a plurality of material trays, the heating cavity is provided on the lower side of the base, and a fan and a heating member are accommodated in the heating cavity; the airflow partition plate is connected to the bottom wall of the accommodating recess, the airflow partition plate divides the accommodating recess into at least two material tray partitions, the material tray partitions are used for placing the material trays, and the material tray partitions are provided with hot air holes; and at least two heating flow channels are formed on the side of the base facing away from the airflow partition plate, one end of each heating flow channel is in communication with the heating cavity, the other end of each heating flow channel is in communication with the corresponding hot air hole, and a valve is provided on each heating flow channel.
Resumen de: US20260061380A1
A temperature-controlled mixing and dispensing device includes a receptacle having a chamber, a mixing blade disposed within the chamber, a heater for heating the chamber, a nozzle, and a port in fluidic communication with the chamber. The port is configured to be pneumatically coupled to a pump. The nozzle dispenses a mixture of a first material and a second material disposed within the receptacle when the pump pumps air into the port.
Resumen de: WO2024261425A1
The invention relates to a crossflow heat exchanger (100) for an aeronautical turbine engine, which is configured to exchange heat between a first fluid and a second fluid and comprises: two or more sub-circuits (10) which form a first circuit which is configured to receive the first fluid (1), the sub-circuits (10) each extending mainly between an inlet (10A) and an outlet (10E) in a first direction (X), the sub-circuits (10) being fluidically independent; the inlets (10A) and outlets (10E) of the sub-circuits (10) being positioned on a first face (F1) of the exchanger; the sub-circuits (10) being delimited by walls (12, 14) which are configured to perform a heat exchange between the first fluid (1) inside the sub-circuits (10) and the second fluid (2) outside the sub-circuits (10).
Resumen de: US20260063379A1
A heat exchanger for air conditioning in a switch cabinet, with a pipe system that is configured to transport a coolant, and comprises multiple pipe pieces, and at least one pipe piece connector element, wherein the at least one pipe piece connector element connects two end sections of the pipe pieces to each other fluidically, and with a heat transfer element, which is preferably embodied as a fin arrangement with a multiplicity of fins, wherein the heat transfer element accommodates the pipe pieces of the pipe system in such a manner that the end sections of the pipe pieces protrude from the heat transfer element. Additionally, at least one capsule is provided, wherein the end sections of the pipe pieces of the pipe systems open into the at least one capsule, so the at least one pipe piece connector element is arranged inside the at least one capsule.
Resumen de: CN121079366A
Described herein are additives for three-dimensional build materials or inks that, in some embodiments, can impart one or more structural reinforcements to articles printed with the build materials. In one aspect, a polymerizable liquid includes at least one additive including a plurality of cyclizable polymerizable functional groups separated by an aliphatic linker or an alkylene oxide linker.
Resumen de: CN120882676A
The invention relates to a method for obtaining at least one ceramic component by joining at least two SiC preforms:-providing at least two porous SiC preforms, such as a green part or a coked part, each having at least one joining surface; providing a bonding slurry comprising-40 to 80 wt.%, preferably 50 to 70 wt.%, of at least one binder,-2 to 20 wt.%, preferably 5 to 18 wt.%, more preferably 8 to 15 wt.%, of silicon carbide particles having a particle size D50 of 10 to 20 mu m, preferably 11 to 18 mu m, more preferably 11 to 16 mu m; -8 to 25 wt%, preferably 9 to 20 wt%, more preferably 10 to 15 wt% of silicon carbide particles having a particle size D50 of 1 to 10 mu m, preferably D50 of 2 to 8 mu m, more preferably D50 of 2 to 5 mu m,-10 to 30 wt%, preferably 12 to 20 wt%, more preferably 13 to 18 wt% of carbon black, -wherein the sum of all the ingredients always totals 100% by weight; -pressing the joining surfaces of the at least two SiC preforms together; -drying the at least two SiC preforms; and-heating the at least two SiC preforms, whereby Si permeates into the SiC preform comprising the dried bonding slurry, thereby obtaining a substantially bonded silicon-silicon carbide (SiSiC) ceramic component.
Resumen de: FR3165926A1
La présente invention concerne une aube (2) de rotor pour une turbomachine (10) d’aéronef, l’aube comportant une pale (3) aérodynamique s’étendant suivant un axe (A) depuis un pied jusqu’à un talon (5), la pale comportant des faces intrados (32) et extrados (34) reliés par des bords d’attaque (36) et de fuite (38),le talon comportant une plateforme (50) comprenant des bords latéraux (55, 56) situés respectivement du côté des faces intrados et extrados, chacun des bords latéraux comportant un revêtement anti-usure (60, 70) comprenant une face de contact (60, 70) apte à venir au contact d’une autre face de contact (62, 72) d’un revêtement anti-usure (6, 7) d’une autre aube (2) de rotor, dans laquelle la face de contact du revêtement anti-usure de chacun des bords latéraux comprend des dents (8, 86, 87) qui sont configurées pour coopérer par emboîtement avec des dents complémentaires de l’autre face de contact. Figure pour l’abrégé : Fig. 6
Resumen de: WO2024229565A1
The present invention introduces a new concept in additive manufacturing (AM) by printing remotely without direct access to printing locations. Common energy sources in AM, heat and light, have small penetration into an optically opaque medium. However, the present invention introduces a deep penetration access to the printing medium using acoustic waves. Acoustic wave patterns create chemically active regions in which the printing material is solidified. The printing material may be a heat curing polymer or polymer composite. This concept introduces a new paradigm in non-invasive/minimally invasive bio-printing inside body, without open surgery, which is proved experimentally in this patent. In addition, a new concept of printing underneath solid and opaque shells with industrial application especially in aerospace is introduced, generated individually with dimensions smaller than those currently achieved;
Resumen de: FR3165795A1
MACHINE D’IMPRESSION TRIDIMENSIONNELLE PAR PROJECTION DE LIANT L’invention concerne une machine d’impression tridimensionnelle comprenant : - un réservoir (17) de poudre configuré pour pouvoir recevoir un matériau pulvérulent, - un bac (15) de construction adapté pour pouvoir recevoir une pièce fabriquée par ladite machine d’impression, - une tête d’impression mobile, - un dispositif de distribution configuré pour former une couche de matériau pulvérulent au sein dudit bac (15) de construction, - une enceinte (4) d’impression configurée pour pouvoir recevoir ladite tête d’impression mobile et ledit dispositif de distribution, ledit bac (15) de construction débouchant au sein de ladite enceinte (4) d’impression, - des moyens de déplacement de ladite tête d’impression mobile et dudit dispositif de distribution, lesdits moyens de déplacement étant disposés hors de ladite enceinte (4) d’impression. Figure pour l’abrégé : figure 1
Resumen de: FR3166029A1
Dispositif semi-conducteur comprenant un boitier de circuit intégré (1) présentant une matrice de connexion (6) pour une connexion à un circuit imprimé (15) caractérisé en ce que le boitier de circuit intégré (1) comprend une structure de protection (2) contre des interférences électromagnétiques des connecteurs élémentaires (3, 4), tels que de billes, formée par un dépôt par impression 3D d’une paroi métallique (11) de protection entre les connecteurs élémentaires (3, 4). Figure pour l’abrégé : Fig 3C
Resumen de: WO2026046662A1
Described and claimed is an additive manufacturing apparatus for manufacturing three-dimensional workpieces comprising a process chamber with a process chamber bottom and a build cylinder with a build cylinder wall surrounding a carrier. The carrier receives raw material powder. The build cylinder is mechanically decoupled from the process chamber bottom such that a force transmitted from the build cylinder wall to the process chamber bottom during docking of the build cylinder to the process chamber bottom remains below a threshold and/or such that changes in the force exerted on the process chamber bottom by the build cylinder wall during the manufacturing of three-dimensional workpieces are reduced.
Resumen de: WO2026047395A1
A novel family of die steels is disclosed. This family of die steels is strengthened through the formation of M2C precipitates and one or two additional precipitates, wherein M is one or more of chromium (Cr), vanadium (V), molybdenum (Mo) or tungsten (W). These additional precipitates may include copper precipitates, NiAl precipitates, and Ni (Al1-xMnx) precipitates. This creates a steel having an acceptable hardness, as well as excellent thermal conductivity.
Resumen de: US20260063611A1
A gas logging system may include a data logger comprising an enclosure, a processor, and memory. The processor and the memory may be configured to log data associated with soil. The gas logging system may further include a set of probes. A probe of the set of probes may include a sensor enclosure, at least one gas sensor configured to provide the data associated with the soil to the processor and the memory, a gas-permeable water-impermeable membrane, a solid-state dehumidifying membrane, and a fan.
Resumen de: US20260062832A1
A silicon carbide crystal growth sublimation system is provided. The system comprises a crucible, a seed holder, an insulation material at least partially surrounding the crucible, and a source material comprising silicon carbide contained within the crucible. At least a portion of the source material, crucible, seed holder, or insulation material is 3D printed from a 3D printing composition comprising a ceramic material and a binder.
Resumen de: US20260062828A1
Described herein are methods and systems for additive manufacturing of parts comprising electrolytic deposits and electrophoretic deposits. Such methods and methods provide various new ways for integrating different materials into composite parts. Specifically, an additive manufacturing system comprises an electrode array with individually-addressable electrodes. Each individually-addressable electrode is coupled to a separate deposition control circuit, which selectively connects this electrode to a power supply. When forming a composite part, the electrode array can control the location of each electrolytic deposit (by controlling the current flow through each individually-addressable electrode) and each electrophoretic deposit (by controlling the electric field distribution). An electrolyte solution or an electrophoretic suspension is provided between the electrode array and deposition electrode to form corresponding deposits. In addition to the electrode-array provided control, alternating the electrolytic and electrophoretic deposition operations can be used to locate the corresponding deposits within a composite part.
Resumen de: US20260062776A1
A novel family of die steels is disclosed. This family of die steels is strengthened through the formation of M2C precipitates and one or two additional precipitates, wherein M is one or more of chromium (Cr), vanadium (V), molybdenum (Mo) or tungsten (W). These additional precipitates may include copper precipitates, NiAl precipitates, and Ni(Al1-xMnx) precipitates. This creates a steel having an acceptable hardness, as well as excellent thermal conductivity.
Resumen de: US20260062205A1
A fluidization system for fluidizing granular material within a hopper has a frame configured to be disposed against and supported by an interior of a hopper in a substantially horizontal orientation. The frame forms a gas conduit and a plurality of fluidization pipes are in fluid communication with the frame. The fluidization pipes extend from the frame at an angle relative to the frame and each fluidization pipe has at least one opening, so there is a fluid pathway being formed from the conduit to the opening.
Resumen de: US20260064012A1
A method and system for 3D modeling of stochastic variation of a lithographic process. The lithographic process is subject to random stochastic phenomena, with the resulting stochastic randomness potentially becoming a major challenge. The stochastic phenomena are modeled using a stochastic model, such as a random field model, that models stochastic randomness. To extend the application of the stochastic model to predict 3D aspects and increase the accuracy of modeling, the stochastic randomness for each level of a plurality of levels discrete from one another in a resist thickness direction may be modeled and analyzed across the plurality of level to generate a 3-dimentional distribution of the stochastic randomness. In turn, indications of 3-dimentional distribution of the stochastic randomness may be used to modify one or both of the light exposure and resist parameters in order to reduce the effect of stochastic randomness on the lithographic process.
Resumen de: US20260061335A1
A method and system for fabricating reflective traffic signs for scale model applications. A scaled traffic sign image is generated using graphic design software and printed onto a transparent or reflective medium. The printed signage layer is bonded to a reflective substrate and affixed to a rigid backing material such as aluminum. The sign is then mounted on a scale stand formed from metal, plastic, or wood. Various fabrication techniques may be used, including water transfer of printed images using clear tape, printing onto acetate, or direct printing onto reflective material. In some embodiments, 3D-printed structural supports are used to house light-emitting diodes (LEDs) to simulate illuminated signage. The resulting scale signs replicate the appearance and reflective characteristics of full-size traffic signs and are suitable for use in model railroads, dioramas, architectural layouts, and educational displays.
Resumen de: US20260061631A1
The present invention describes an innovative programmable micro-stamp pick and place apparatus and method. This invention provides a micro-stamp device having a patterned polymer membrane that is configured with micropillars. When a micro-stamp device, singly or arranged in an array or group, is inflated with a fluid, the patterned polymer membrane deforms from a planar state and this causes the micropillars to peel from the workpiece. This patterned polymer membrane can thus be used to pick and place electronic die(s) or chip(s), single or in an array or a group, during fabrication, or to pick and replace defective die(s) or chip(s) during a test and repair process.
Resumen de: US20260062579A1
An active energy ray curing composition contains a polymerizable monomer having a phosphoric acid ester group and a polyester resin having an unsaturated bond and a number average molecular weight of 3,000 or less.
Resumen de: US20260061488A1
A shaping device includes a table, a forming unit, and a controller. The forming unit has a feeder, a heater capable of pre-heating each of a plurality of regions in a powder bed, and a beam source configured to irradiate the pre-heated powder bed with an energy beam. The controller includes a region division unit configured to divide the powder bed into a plurality of small regions, a region setting unit configured to set a small region including an irradiation scheduled portion to be irradiated with the energy beam by the beam source as a first region and set at least one small region among other small regions that have not been set as the first region as a second region, and a heater control unit configured to control an output of the heater such that the first region and the second region are pre-heated at mutually different temperatures.
Resumen de: US20260061494A1
A system estimates a build state of a build object. The system includes an image acquisition unit and an analysis unit. The build object is manufactured by repeating: forming a material layer by supplying material powder onto a build area, and forming a solidified layer by irradiating the material layer with one or more laser beams. The image acquisition unit acquires, in real time, an image of spatter around each molten pool formed by the irradiation of the laser beams. The analysis unit extracts at least one feature related to the spatter from the image, calculates coordinates indicating a position of the molten pool, estimates a local parameter representing the build state of the solidified layer by inputting the at least one feature to a trained model, and outputs the local parameter in a form associated with the coordinates.
Resumen de: US20260061704A1
The method for producing a three-dimensional layered object comprising the steps of: depositing, onto a support plane of a cooled platform, a first liquid which solidifies forming a first containing layer H1; depositing, onto the first containing layer H1, a second liquid which solidifies forming a first structural layer G2 of the three-dimensional object; the structural layer G2 is deposited in an area that has contours corresponding to the contours of a first section of the digital model of the three-dimensional object; forming a second containing layer H2 which completely surrounds the structural layer G2 in the directions X and Y; repeating the previous steps for all sections n of the three-dimensional model, thus producing an object formed by n superimposed structural layers G2, G3, . . . Gi, . . . Gn which is incorporated at the bottom and on the sides along the directions X and Y by n+1 containing layers H1, H2, . . . Hi, . . . Hn+1; melting the containing layers, hence freeing the three-dimensional layered object thus formed.
Resumen de: US20260068679A1
Semiconductor device includes an integrated circuit package having a connection array for a connection to a printed circuit. The integrated circuit package includes a shield structure against electromagnetic interference from elementary connectors, such as balls. The shield structure is formed by deposition by 3D printing of a metal shield wall between the elementary connectors.
Resumen de: US20260061697A1
The present disclosure relates to conducting polymer powder. In particular, it relates to composite powder material including particulate polymer and graphene, wherein the particulate polymer is coated with graphene, and wherein the graphene concentration is 0.03-1.5% in weight per weight of the particulate polymer. The polymer is selected from the group consisting of polyamide, thermoplastic fluoropolymer, polyethylene, and polyurethane. The polyamide is selected from the group consisting of PA6, PA11, PA12, PA66.
Resumen de: US20260061692A1
A method for producing a 3D item (1) by means of fused deposition modelling of 3D printed material (202) on a receiver item (550), wherein the 3D item (1) comprises a plurality of layers (322) of 3D printed material (202); wherein: (a) the printable material (201) comprises a semi-crystalline polymer; (b) the 3D printable material (201) has (i) a melting temperature range, ranging from a first melting temperature TM1 to a second melting temperature TM2, wherein TM2>TM1, and (ii) a crystallization temperature range, ranging from a second crystallization temperature Tc2 to a first crystallization temperature Tci, wherein TC2>TC1; (c) the 3D printing stage comprises guiding the 3D printable material (201) through a printer nozzle (502) at a nozzle temperature TN; wherein TN>TM2; (d) the method comprises during a first sub-stage of the 3D printing stage: depositing 3D printable material (201) on the receiver item (550) having a first receiver item temperature TB1, to provide n1 first layers (1322) on the receiver item (550); wherein TB1>TM2; (e) the method comprises during a second sub-stage of the 3D printing stage: cooling n12 first layers of the n1 first layers (1322) and selecting a second receiver item temperature TB2 of the receiver item (550), wherein TN2<TB1; and (f) the method comprises during a third sub-stage of the 3D printing stage: depositing 3D printable material (201) on the previously deposited n1 first layers (1322), to provide n2 second layers (2
Resumen de: US20260061702A1
An apparatus for volumetric 3d-printing a three-dimensional object by multi-color photopolymerization of a photocurable resin.
Resumen de: US20260061695A1
A method for volumetric printing a three-dimensional object by multi-color photopolymerization of a photocurable resin.
Resumen de: US20260060925A1
A hollow body has a bottom, an upper end wall, and side walls extending between the bottom and the upper end wall. The upper end wall and side walls are made of metal. The cavity within the hollow body has a volume in the range between 1 picoliter to 1,000 picoliter. The upper end wall comprises at least one opening. The hollow body is suitable for encapsulating small amounts of liquid, or a small micro-electromechanical system, and may be used for the controlled release of pharmaceutical components.
Resumen de: US20260063379A1
A heat exchanger for air conditioning in a switch cabinet, with a pipe system that is configured to transport a coolant, and comprises multiple pipe pieces, and at least one pipe piece connector element, wherein the at least one pipe piece connector element connects two end sections of the pipe pieces to each other fluidically, and with a heat transfer element, which is preferably embodied as a fin arrangement with a multiplicity of fins, wherein the heat transfer element accommodates the pipe pieces of the pipe system in such a manner that the end sections of the pipe pieces protrude from the heat transfer element. Additionally, at least one capsule is provided, wherein the end sections of the pipe pieces of the pipe systems open into the at least one capsule, so the at least one pipe piece connector element is arranged inside the at least one capsule.
Resumen de: US20260061489A1
Disclosed is a method for controlling an energy input device of an additive manufacturing device. A beam bundle deflection center is assigned to each of the number of beam bundles from which this beam bundle is directed onto the build plane beam bundle deflection center is assigned a projection center corresponding to a perpendicular projection of the position of the beam bundle deflection center onto the build plane directions of the movement vectors of the number of beam bundles when scanning the trajectories are defined such that at each of the solidification points in this section the movement vector has an angle with respect to a connection vector from this solidification point to the projection center of the beam bundle used, which angle is smaller than a predetermined maximum angle γ1.
Resumen de: US20260063525A1
The invention provides a test method for quantitatively studying a stress wave propagation law of a porous rock, which adopts a dynamic true triaxial electromagnetic Hopkinson bar test system for testing. The test method comprises: quantitatively designing and preparing a cubic porous rock sample required by testing; placing the cubic pore rock sample in a central cubic square chest; and quantitatively studying a high-amplitude stress wave propagation law of the porous rock on the cubic porous rock sample by adopting the dynamic true triaxial electromagnetic Hopkinson bar test system.
Resumen de: WO2026046498A1
A screen printing device for producing a three-dimensional screen print comprises one or more screen printing cylinders. The screen printing device is configured so as to successively apply M printing layers onto a printing substrate, where M is greater than or equal to 2. For each m from 1 to M, the screen printing device is configured so as to bring about a relative movement between the printing substrate and a screen printing cylinder for applying the m-th printing layer and, at the same time, a rotation of the screen printing cylinder about its cylinder axis such that the screen printing cylinder rolls on the printing substrate and thereby applies the m-th printing layer onto the printing substrate. For each m which is greater than 1, the distance, during the application of the m-th printing layer, between the printing substrate and the screen printing cylinder for applying the m-th printing layer is greater, by the thickness of the (m-1)-th printing layer, than the distance, during the application of the (m-1)-th printing layer, between the printing substrate and the screen printing cylinder for applying the (m-1)-th printing layer.
Resumen de: DE102024124990A1
Baukammer (5) zum Bereitstellen eines Schutzgasstroms (46a, 46b, 46c, 46d, 46e, 46f) in einer additiven Fertigungsvorrichtung (1), wobei die Baukammer (5) umfasst: eine erste Seitenwand (51), in der ein erster Einlassbereich (36a) und ein zweiter Einlassbereich (36b) vorgesehen sind, wobei der erste Einlassbereich (36a) eingerichtet ist zum Erzeugen eines ersten Primärschutzgasstroms (46a) und der zweite Einlassbereich (36b) eingerichtet ist zum Erzeugen eines ersten Sekundärschutzgasstroms (46b), wobei der erste Primärschutzgasstrom (46a) im Wesentlichen horizontal entlang des Bodens der Baukammer (5) fließt und der erste Sekundärschutzgasstrom (46b) im Wesentlichen horizontal über dem ersten Primärschutzgasstrom (46a) fließt oder in einem spitzen Winkel auf den ersten Primärschutzgasstrom (46a) gerichtet ist, eine zweite Seitenwand (52), die der ersten Seitenwand (51) gegenüberliegt, und einen Auslassbereich (37) zum Absaugen des Schutzgasstroms (46a, 46b, 46c, 46d, 46e, 46f), wobei die erste Seitenwand (51) einen dritten Einlassbereich (36c) aufweist, wobei der dritte Einlassbereich (36c) eingerichtet ist zum Erzeugen zumindest eines ersten Tertiärschutzgasstroms (46c), wobei der erste Tertiärschutzgasstrom (46c) über dem ersten Sekundärschutzgasstrom (46b) fließt.
Resumen de: DE102025134184A1
Ein Verfahren für ein Herstellen eines Schneidwerkzeugs ist offenbart. Das Schneidwerkzeug kann additiv gedruckt werden. Dies kann das Ausbilden einer komplexen Gestaltung mit variierenden Flächen des Schneidwerkzeugs in unterschiedlichen Ausgestaltungen und Ausrichtungen ermöglichen. Dann können eine Spanfläche und eine Freifläche des Schneidwerkzeugs geschliffen werden, um eine Schnittfläche zu bilden.
Resumen de: DE102024208461A1
Es wird ein Verfahren zur Behandlung der Oberfläche für im Wege des 3D-Drucks hergestellte Komponenten angegeben. Das Verfahren umfasst die Schritte, (i), Bereitstellen einer, insbesondere durch den 3D-Druck hergestellten, Komponente aus einem Grundmaterial mit einer unbehandelten Oberfläche, (ii), Eintauchen der Komponente in eine Suspension wobei die Suspension mehr als 40 % Massenanteile eines zu einem Grundmaterial der Komponente artähnlichen Feststoffs enthält, und, (iii), Herausziehen der Komponente aus der Suspension, wobei eine Komponentenoberfläche mit einer im Vergleich zu der unbehandelten Oberfläche reduzierten Rauheit entsteht. Weiterhin wird eine entsprechend hergestellte oder behandelte Komponente angegeben.
Resumen de: DE102024124871A1
Es ist eine Vorrichtung zur gerasterten Prozessanwendung an flächigen Objekten geschaffen mit einem Grundgestell (1), einer Objektaufnahmeeinrichtung (12) zur unbewegten Aufnahme eines einer Prozessanwendung zu unterziehendes Objekts (15), einer sich in Querrichtung der Vorrichtung erstreckenden Abtastbrücke (2), einer sich in Querrichtung der Vorrichtung erstreckenden Anwendungsbrücke (3) und einer Steuereinrichtung. An der Abtastbrücke (2) ist wenigstens eine Abtasteinrichtung (6) zur Bestimmung von Objektdaten in einem Abtastabschnitt angeordnet ist, die entlang der Längsrichtung über die Länge der Objektaufnahmeeinrichtung (12) verfahrbar ist. An der Anwendungsbrücke (3) ist wenigstens eine Anwendungseinrichtung (7) zur Prozessanwendung in einem Anwendungsabschnitt eines an der Objektaufnahmeeinrichtung (12) angeordneten Objekts (15) angeordnet. Die Anwendungsbrücke (3) ist entlang der Längsrichtung über die Länge der Objektaufnahmeeinrichtung (12) verfahrbar und die Anwendungseinrichtung (7) ist an der Anwendungsbrücke (3) in der Querrichtung über zumindest einen Teil der Breite der Objektaufnahmeeinrichtung (12) verfahrbar ist. Die Steuereinrichtung ist eingerichtet, die Abtastbrücke (2) und die wenigstens eine Abtasteinrichtung (6) so anzusteuern, dass die wenigstens eine Abtasteinrichtung (6) in der Längsrichtung über die gesamte Fläche eines Objekts (15) geführt wird und hierbei Objektdaten für das gesamte Objekt (15) bestimmt, aus den Objektdaten
Resumen de: DE102024125325A1
1. Die Erfindung betrifft eine Membran (1) für einen Membrankontaktor (2), die als eine zu einer Mittelebene (ME) spiegelsymmetrische hohle Röhrenstruktur aus verzweigten Röhren (3, 3', 3", 3''', 3'''') mit beidseits der Mittelebene (ME) mehreren zur Mittelebene (ME) parallelen Verzweigungsebenen (VE) ausgebildet ist, wobei die Wandungen der Röhrenstruktur stoffpermeabel und/oder energiepermeabel sind und wobei im Bereich (B) jeder Verzweigungsebene (VE) jede in Richtung zur Mittelebene (ME) erstreckte Röhre (3, 3', 3'', 3''') in mehrere zur Mittelebene (ME) erstreckte Röhren (3', 3'', 3''', 3'''') verzweigt und die von beiden Seite der Mittelebene (ME) von der jeweils letzten Verzweigungsebene (VE) zur Mittelebene (ME) erstreckten Röhren (3'''') im Bereich (ÜB) der Mittelebene (ME) ineinander übergehen. Die Erfindung betrifft weiterhin einen Membrankontaktor (2) mit einer solchen Membran und ein Verfahren zur Herstellung einer hohlen Membran (1).
Resumen de: DE102024125133A1
Die Erfindung betrifft eine Vorrichtung zur additiven Fertigung von Produkten (2), bei der durch lokale Aushärtung eines unter Lichteinstrahlung aushärtenden Resins schichtweise ein Produkt erzeugt wird, mit einem Resinbehälter (3) zur Aufnahme eines Resins während des Druckvorgangs, einem in zumindest einer Höhenrichtung verfahrbaren Druckkopf (4), einer Druckeinheit (5) zur lokalen Beaufschlagung des im Resinbehälter (3) vorrätig gehaltenen Resins mit einem die lokale Aushärtung des Resins bewirkenden Licht zur Erzeugung des Produkts (2), und einem Reinigungsbehälter (6) zur Aufnahme eines Reinigungsmediums. Sie ist durch eine Steuereinrichtung (7) gekennzeichnet, die dazu eingerichtet ist, in einem Reinigungsmodus zunächst den Druckkopf (4) in den Reinigungsbehälter (6) hinein zu bewegen, dort eine Bewegungsabfolge auszuführen, durch die eine Strömung in dem dort befindlichen Reinigungsmedium erzeugt wird, und nachfolgend den Druckkopf (4) aus dem Reinigungsmedium heraus zu bewegen.Weiterhin betrifft die Erfindung ein entsprechendes Verfahren.
Resumen de: US20260061532A1
A hybrid method for inspecting and repairing a gas turbine engine component, comprising: coupling at least one gas turbine engine component to an inspection system housed within an enclosure area; scanning, via the inspection system, the gas turbine engine component with a first scanner; probing, via the inspection system, the gas turbine engine component with a contact probe; scanning, via the inspection system, areas of interest of the gas turbine engine component with a second scanner; depositing layers of powder onto the areas of interest of the gas turbine engine component; solidifying and fusing each layer with a first directed energy beam to define the gas turbine engine component; pre-heat treating the solidified layer prior to depositing a subsequent layer of powder; and cold working a surface of a solidified layer prior to depositing a subsequent layer of powder.
Resumen de: WO2026049715A2
The present disclosure relates to systems, devices, and methods for spacecraft propulsion. In an embodiment, the present disclosure relates to an apparatus comprising a heat exchanger body defining a plurality of propellant channels configured to contain a propellant, a central cavity configured to contain a working fluid and fluidically connected to a plurality of working fluid channels that extend along a radial dimension of the apparatus, and a nozzle fluidically connected to the plurality of propellant channels and configured to expel the propellant.
Resumen de: WO2026049631A2
The invention provides an additive manufacturing method for building a structure, in particular an infrastructural construction, more in particular a sound barrier, comprising: - providing an earth composition comprising 20-70 wt.% clay and silt, 70-30 wt.% sand, less than 10 wt.% gravel and less than 4 wt.% water, in particular less than 2.5 wt.% water, more in particular less than 1.5 wt.% water, more in particular less than 1 wt.% water; - mixing said earth composition with an air flow with a pressure of 2-10 bar, in particular 2-5 bar, at a mixing volume ratio of between 1:50 and 1:150 earth composition to air and resulting in a flow rate of between 50-400 m3/hour; - pneumatically conveying said air-earth composition mixture to an additive manufacturing robot at its nozzle; - adding at or near the nozzle an additional amount of water to result in 5-10 wt.%, in particular 7-10 wt.% water in said earth composition, more in particular 7-9 wt.% water content, and - depositing, in particular spraying, said earth composition via said nozzle for building said structure.
Resumen de: WO2026050650A1
A silicon carbide crystal growth sublimation system is provided. The system comprises a crucible, a seed holder, an insulation material at least partially surrounding the crucible, and a source material comprising silicon carbide contained within the crucible. At least a portion of the source material, crucible, seed holder, or insulation material is 3D printed from a 3D printing composition comprising a ceramic material and a binder.
Resumen de: WO2026050681A2
Methods and systems for additive manufacturing are provided. In some embodiments, a system for manufacturing objects includes a material source configured to deposit a curable material on a substrate. The system can also include a heating element configured to heat at least a portion of the curable material to remove one or more bubbles present in the curable material. The system can further include an energy source configured to output energy toward the curable material on the substrate to form an object portion according to an additive manufacturing process.
Resumen de: DE102024124661A1
Verfahren (1000) zur Herstellung einer Wand (200, 300, 3000a), aufweisend: computergestütztes Konstruieren (1010) der Wand (200, 300, 300a), wobei die Wand (200, 300, 300a) einen Installationskanal (1) aufweist; computergestütztes Zerlegen (1020) der konstruierten Wand (200, 300, 300a) in Bauelemente (100, 110, 120, 130, 140, 150, 160), wobei eine Vielzahl zueinander benachbarter Bauelemente (100, 110, 120, 130, 140, 150, 160) zumindest einen Abschnitt des Installationskanals (1) umfasst; computergestütztes Erstellen (1030) eines Steuerdatensatzes zur Steuerung einer Vorrichtung (500) zur additiven Fertigung, die konfiguriert ist, aus zumindest einem Baustoff die Vielzahl der Bauelemente (100, 110, 120, 130, 140, 150, 160) individuell bereitzustellen; additives Fertigen (1040) der Vielzahl der Bauelemente (100, 110, 120, 130, 140, 150, 160) für die Wand (200, 300, 300a) mit der Vorrichtung (500) zur additiven Fertigung unter Verwendung des Steuerdatensatzes; und typischerweise Errichten der Wand (1100) durch ein geordnetes Fügen der Vielzahl der gefertigten Bauelemente (100, 110, 120, 130, 140, 150, 160) umfassend ein Ausbilden eines Verbandes (200, 300, 300a) der Bauelemente 100, 110, 120, 130, 140, 150, 160).
Resumen de: WO2026047121A1
The present invention relates to a process of manufacturing a coldplate (100) for semiconductor cooling applications, with the steps • providing a base plate (102), • 3D screen printing a cooling structure layer (104) on top of the base plate (102) with a build rate between 15 and 8,500 cm³ per hour to form a first three-dimensional cooling structure (106) within the coldplate (100) having critical dimensions between 25 and 200 µm and an aspect ratio between 1 and 80, wherein the first three-dimensional cooling structure (106) comprises at least one area (108) with a microstructure including a network of channels (110) for guiding a cooling agent, and two or more three-dimensional features (112) which contribute to the formation of boundaries of the channels of the network of channels (110).
Resumen de: WO2026047052A1
The present invention relates to additive manufacturing arrangements and methods for additive manufacturing by selective fusion of layers of a three-dimensional product from a powder bed (240) comprising successively formed powder layers. An electron beam emitter (210) is configured to deliver an electron beam (220) towards a top surface (242) of the powder bed (240) and at least one detector (285) is configured to detect electron and/or photon radiation from a structure (291, 292) of a vacuum chamber (280) or inner surface (291, 292) of the vacuum chamber (280). An analysing unit (294) is configured to use the output signal from the at least one detector (285) to analyse the radiation distribution in the output signal to determine a resulting signal indicating a melt status of the melt pool and an electron beam controller (296) is configured to control the energy beam (220) in response to the resulting signal.
Resumen de: WO2026047455A1
An extruder device for 3D printing, configured to be fed with extrusion material granules, comprises an extrusion cylinder (4), one or more heating members (6) associated with the extrusion cylinder (4), an extrusion screw (8) rotatably mounted in the extrusion cylinder (4), and an electric motor-gearbox assembly (3) that drives the rotation of the extrusion screw (8). The body of the extruder device includes a hollow main core (2) having a through cavity (200) within which is disposed a drive shaft (9) connecting the electric motor-gearbox assembly (3) to the extrusion screw (8). A hopper for feeding extrusion material granules to the extrusion cylinder (4) is defined by a lower portion (201) of the internal cavity (200) of the main core (2), having a substantially tapered conical configuration, whose axis substantially coincides with the main axis (2A) of the extruder device. The main core (2) has a granule inlet (22), through which the granules enter the main core (2) pushed by a pressurized air flow. Said inlet (22) is configured and arranged to feed the granules in a substantially tangential direction into an upper portion (203) of the internal cavity (200) of the main core (2) which is configured as a circumferential channel. The drive shaft (9) carries an auger (10) to push the extrusion material granules into said internal coaxial hopper (201) defined by the lower portion of the internal cavity (200) of the main core (2).
Resumen de: WO2026046791A1
The invention relates to a build chamber (5) for providing a protective gas flow (46a, 46b, 46c, 46d, 46e, 46f) in an additive manufacturing device (1), the build chamber (5) comprising: a first side wall (51) in which a first inlet region (36a) and a second inlet region (36b) are provided, the first inlet region (36a) being designed to generate a first primary protective gas flow (46a) and the second inlet region (36b) being designed to generate a first secondary protective gas flow (46b), the first primary protective gas flow (46a) flowing substantially horizontally along the bottom of the build chamber (5) and the first secondary protective gas flow (46b) flowing substantially horizontally over the first primary protective gas flow (46a) or being directed at an acute angle to the first primary protective gas flow (46a); a second side wall (52) opposite the first side wall (51); and an outlet region (37) for extraction of the protective gas flow (46a, 46b, 46c, 46d, 46e, 46f), wherein the first side wall (51) has a third inlet region (36c), the third inlet region (36c) is designed to generate at least one first tertiary protective gas flow (46), and the first tertiary protective gas flow (46c) flows over the first secondary protective gas flow (46b).
Resumen de: WO2026047531A1
The present application relates to an objective for focusing at least two partial beams of a light beam incident on the objective at at least one predetermined depth within an image space, comprising: (a) a focusing unit having at least one optical element; (b) at least one combined beam-splitting and aberration-compensating unit configured to split the light beam entering the objective into at least two partial beams and compensate at least one aberration of the at least one optical element of the focusing unit in advance; and (c) wherein the at least one optical element is configured to focus the at least two partial beams, which are leaving the combined beam-split- ting and aberration-compensating unit, at the at least one predetermined depth within the image space.
Resumen de: US20260060378A1
A shoe, a shoe production system and a method for producing a shoe including the steps: a. providing an upper assembly (2), wherein the upper assembly includes an upper (3) being mounted on a carrier (4), wherein the upper (3) includes a bottom section (5) being made from a thermoplastic polymer upper material; b. providing a sole molding unit (6), wherein the sole molding unit defines a cavity; c. inserting the upper assembly (2) at least partially into the cavity; introducing a midsole polymer composition comprising a molten thermoplastic polymer midsole material which has a melting temperature being equal or higher than the melting temperature of the thermoplastic polymer upper material into the cavity and foaming the molten thermoplastic polymer midsole material inside the cavity to provide a foamed midsole and to establish a material-bonded connection between the upper (3) and the foamed midsole (8).
Resumen de: US20260061694A1
The invention provides a method for producing a 3D item by means of fused deposition modelling, the method comprising a 3D printing stage comprising layer-wise depositing 3D printable material, to provide the 3D item comprising 3D printed material, wherein the 3D item comprises layers of 3D printed material, wherein the 3D printable material comprises thermoplastic material, wherein during at least part of the 3D printing stage the 3D printable material further comprises porous inorganic particles embedded in the thermoplastic material, wherein the porosity of the inorganic particles is in the range 5-60 vol. %, and wherein the inorganic particles (410) have an open porosity. The invention also comprises the product resulting from above method.
Resumen de: US20260061492A1
An additive manufacturing device and method with interlayer ultrasonic rolling coupled in-situ electromagnetic induction heating, the device includes an additive manufacturing equipment, a substrate turntable for supporting and adjusting a component's position, an ultrasonic rolling device and an electromagnetic induction heating device cooperated with a top of the component; an ultrasonic controller connected to the ultrasonic rolling device to set rolling parameters required, and an electromagnetic controller connected to the electromagnetic induction heating device to set a current intensity and an induction frequency required. The device and method utilize eddy currents generated by an alternating electromagnetic field to regulate component surface temperature, which can significantly reduce ultrasonic rolling resistance, improve interlayer strengthening efficiency, reduce interlayer strengthening costs, broaden the range of materials suitable for interlayer strengthening, close defects in AM metal components and improve component forming quality and density, and has a positive impact on AM metal materials.
Resumen de: US20260061094A1
Method for generating a porous injectable scaffold that includes providing a liquid composition of 2 phases at a temperature below 25° C., of Newtonian behavior, where the composition comprises: a liquid dispersant phase at room temperature formed by a gelatin with a low melting point, less than 15° C., functionalized with methacryloyl or methacrylamide groups; and a photoinitiator;and a dispersed phase, of microdroplets or beads in solid state, of a gelatin solution with a melting point greater than 25° C.; initiating the polymerization of the dispersing phase by light radiation; raising the temperature to 35-40° C. and allowing melting of the dispersed phase; and obtaining a porous scaffold. The formed porous scaffold and its use as a biological support for tissue regeneration/generation; as a biological matrix as a support for cells, for cell invasion; as an acellular biological matrix, a biological matrix as a mechanical support and/or a biological matrix for active components.
Resumen de: AU2026201089A1
The present invention relates to a method for preparing a metal powder intended for an additive manufacturing process, of the type that involves scanning a bed of powder by a near-infrared laser beam, characterized in that the method comprises: an initial step for selecting a powder, which has an optical reflectivity of higher than 70% for a wavelength ranging between 800 and 1500 nm; then a step for treating said powder, which is different from particle grafting, and which induces a physical and/or chemical surface modification of the grains (4) of said powder, making it possible to lower its optical reflectivity, at the given wavelength. The invention also relates to the use of such a powder, the grains (4) having, after treatment, a median grain size d50 of between 5 and 50 μm. Figure for the abstract: Figure 4 eb e b Fig. 4 Fig. 5 Fig. 6 Fig. 4 Fig. 5 30 Oum Fig. 6 10 µm eb u n d i g w n o e b
Resumen de: AU2024316790A1
Various implementations include a tissue product that includes a through-air dried tissue ply including a three-dimensional topography. The three-dimensional topography defines a first design element and a second design element encompassed within and discontinuous from the first design element. Various other implementations include a through-air dried fabric having a three-dimensional topography disposed thereon that forms the three-dimensional topography of the tissue ply. Various other implementations include a method of forming the tissue ply using the through-air dried fabric.
Resumen de: WO2026050489A1
A fluidization system for fluidizing granular material within a hopper has a frame configured to be disposed against and supported by an interior of a hopper in a substantially horizontal orientation. The frame forms a gas conduit and a plurality of fluidization pipes are in fluid communication with the frame. The fluidization pipes extend from the frame at an angle relative to the frame and each fluidization pipe has at least one opening, so there is a fluid pathway being formed from the conduit to the opening.
Resumen de: WO2026050041A2
A method for manufacturing at least one of a musical instrument, musical instrument section, musical instrument part, and musical instrument accessories utilizes computer-assisted drawing software to prepare a digital model of the at least one of the musical instrument, the musical instrument section, the musical instrument part, or the musical instrument accessory to be manufactured. The digital model is sliced. One may then select a material for the at least one of the musical instrument, the musical instrument section, the musical instrument part, or the musical instrument accessory to be manufactured. One may prepare the selected material. One may them build the digital model layer by layer using the material, until at least one of a three-dimensional musical instrument, musical instrument section, musical instrument part, or musical instrument accessory is formed.
Resumen de: WO2026046385A1
A material bin, a 3D printing feeding apparatus, and a 3D printing device. The material bin comprises a housing, a base, and an airflow partition plate; the housing defines an accommodating cavity; the base is accommodated in the accommodating cavity; the base is provided with an accommodating recess and a heating cavity, the accommodating recess is formed on the upper side of the base and is used for accommodating parts of a plurality of material trays, the heating cavity is provided on the lower side of the base, and a fan and a heating member are accommodated in the heating cavity; the airflow partition plate is connected to the bottom wall of the accommodating recess, the airflow partition plate divides the accommodating recess into at least two material tray partitions, the material tray partitions are used for placing the material trays, and the material tray partitions are provided with hot air holes; and at least two heating flow channels are formed on the side of the base facing away from the airflow partition plate, one end of each heating flow channel is in communication with the heating cavity, the other end of each heating flow channel is in communication with the corresponding hot air hole, and a valve is provided on each heating flow channel.
Resumen de: WO2026044992A1
A material chamber (1000), a 3D printing feeding apparatus, and a 3D printing device. The material chamber (1000) comprises a housing (1120), a base (1130), a fan (1200), and a heating element (1300), the base (1130) being accommodated in the housing (1120). The base (1130) has a base region (1140), and the base (1130) comprises a support shaft (1133) for supporting a material spool (2000), a region below a plane that passes through an axis line of the support shaft (1133) and is parallel to a bottom wall of the housing (1120) being the base region (1140), and the material spool (2000) being placed in the base region (1140). An airflow chamber (1150) is formed between the base (1130) and the bottom wall of the housing (1120), the base (1130) being provided with a first air hole (113A) and a second air hole (113B), the first air hole (113A) and the second air hole (113B) being circumferentially spaced apart on the material spool (2000), and the first air hole (113A) and the second air hole (113B) being in communication with the base region (1140) and the airflow chamber (1150), respectively. The fan (1200) and the heating element (1300) are accommodated in the airflow chamber (1150), the fan (1200) being disposed adjacent to the first air hole (113A), and an air outlet of the fan (1200) facing toward a side of the second air hole (113B). The material chamber (1000) can solve the problem of poor drying effect of a material spool (2000) inside an existing 3D printing feeding app
Resumen de: WO2026044772A1
A material bin (100), a 3D printing feeding device, and a 3D printing apparatus. The material bin (100) comprises a housing (101), a base (103) and a heating assembly (104), wherein the housing (101) defines an accommodating cavity (108); the base (103) is accommodated in the accommodating cavity (108); the base (103) is provided with an accommodating groove (111) and a heating cavity (113); the accommodating groove (111) is formed on the upper side of the base (103) and is configured to accommodate part of a plurality of material trays, a bottom wall of at least part of the accommodating groove (111) is adapted to the shape of the material trays, and the heating cavity (113) is provided on the lower side of the base (103); the heating assembly (104) is accommodated in the heating cavity (113), and the heating assembly (104) comprises a fan (109) and a heating member (110); an air return opening (132) is further provided on the side of the base (103) away from the material trays, and the air return opening (132) is in communication with the heating cavity (113); a gap (126) is provided between the base (103) and the housing (101), and/or the base (103) is provided with a gap (126); and the gap (126) is configured to conduct an airflow between the air return opening (132) and the accommodating groove (111). The material bin (100) can solve the problems of a low airflow efficiency and a low heating efficiency of a material bin (100) of an existing 3D printing apparatus.
Resumen de: WO2026045008A1
A multifunctional inkjet coding and line marking device, comprising a rack, which is provided with a first support beam (2), a horizontal movement mechanism (3) arranged above the first support beam, a Y-axis direction limiting mechanism (5) cooperating with the horizontal movement mechanism, and an inkjet coding and line marking mechanism (4), wherein the horizontal movement mechanism comprises a set of second support beams (5-1) arranged in parallel, a third support beam (5-2), a safety protection device support plate (5-3) arranged between the second support beams and the third support beam, an apparatus main support plate (5-5) arranged above the second support beams and the third support beam, and first linear guide rails (5-8) arranged on the second support beams; and the inkjet coding and line marking mechanism comprises a main support column (6-1), an inkjet coding movement assembly (6-6), and a drive connection device connected between the main support column and the inkjet coding movement assembly. The device can achieve intelligent inkjet printing of profiles of different models and specifications and achieve accurate positioning and limiting. Further provided is an inkjet printing method using the device.
Resumen de: US20260063886A1
The present disclosure provides a multiphoton imaging method. The method includes a) immersing a semi-submersible microscope objective in a liquid medium that is at least one of scattering or absorbing; b) directing laser light through the semi-submersible microscope objective and into the liquid medium in an image-wise manner under conditions such that multiphoton absorption by the multiphoton absorber occurs, and at least partial polymerization of the polymerizable compound occurs resulting in an article; and c) removing uncured polymerizable compound to clean the article. The liquid medium includes a polymerizable compound, a secondary component, and a multiphoton absorber. An article is also provided. The article includes a material defining one or more tortuous or arcuate channels, one or more internal architectural voids, one or more undercuts, one or more perforations, or combinations thereof, at least one of which exhibits a surface roughness of 1.0 micrometer Ra or less.
Resumen de: US20260061543A1
A method of manufacturing a cutting tool is disclosed. The cutting tool may be additively printed. This may allow the formation of a complex design with varying surfaces of the cutting tool in differing configurations and orientations. Then, a rake face and a flank face of the cutting tool may be grinded to form a cutting surface.
Resumen de: US20260061380A1
A temperature-controlled mixing and dispensing device includes a receptacle having a chamber, a mixing blade disposed within the chamber, a heater for heating the chamber, a nozzle, and a port in fluidic communication with the chamber. The port is configured to be pneumatically coupled to a pump. The nozzle dispenses a mixture of a first material and a second material disposed within the receptacle when the pump pumps air into the port.
Resumen de: US20260063091A1
A self-contained vertical takeoff and landing vehicle (VTOL) with aspect ratio of height to width no greater than 5.3:1 and with both rocket and airbreathing propulsion systems that can selectively operate one at a time or both at the same time and fuel tanks that have internal lattice structures formed of groups of interconnected multiplicities of fuel cells such as gyroids that line and are integrated with a vehicle skin to form a structural skeleton strengthened with said lattice structures that also serve to reduce fuel slosh compared with fuel tanks lacking such lattice structures and provide other benefits such as fuel temperature profile control.
Resumen de: US20260062530A1
Polyaryletherketone aerogels. In particular, a method of making polyaryletherketone aerogels using environmentally benign solvents for gel formation. In addition, a method is provided for 3D printing of such polyaryletherketone aerogels. The polyaryletherketone aerogels may specifically be sourced from poly(ether ether ketone) (PEEK) or poly(ether ketone ketone) (PEKK).
Resumen de: US20260062333A1
Exemplary embodiments are disclosed of systems and methods for glass additive manufacturing. In an exemplary embodiment, a coaxial beam delivery system for an additive manufacturing system comprises an off axis parabolic (OAP) mirror with an axial through hole. The coaxial beam delivery system is configured to be operable for delivering a beam via parabolic reflection from the OAP mirror to a workpiece coaxially with feedstock being fed through the axial through hole in the OAP mirror.
Resumen de: US20260061706A1
A method is disclosed of additively manufacturing an object. The method may include discharging a material from a supply through an outlet of a print head onto an underlying layer to form the object. The method may also include moving the print head with a support during the discharging, and selectively twisting the material about a longitudinal axis of the material.
Resumen de: US20260062100A1
An apparatus and method is provided for forming a friction enhanced non-slip surface upon a water sports board comprising a computer controlled print head which deposits UV curable liquid material in defined patterns or areas on a riding surface of a water sports board. UV curing light emitters cure the liquid material to form friction enhanced areas upon the sports board.
Resumen de: US20260061696A1
In a vat polymerization printer, a beam scanner scans a light beam across a mask and into a tank containing a photo-curable resin. The mask has pixels configurable to be individually transparent or opaque to portions of the light beam, which has a diameter greater than a cross-sectional dimension of the pixels of the mask. During an exposure time duration, a first subset of the pixels are controlled to be transparent at locations corresponding to the cross section of a three-dimensional object to be printed, while a second subset of the pixels are controlled to be opaque at locations not corresponding to the cross section of the three-dimensional object. The beam scanner is controlled to scan the light beam across the mask such that the light beam is always incident on at least one of the pixels of the mask that are controlled to be transparent.
Resumen de: US20260061693A1
A method for printing via a high operating temperature direct ink writing process is disclosed. The method comprises extruding a filament by causing a filament material, which includes a thermoplastic elastomer, to experience a shear rate of at least 1 s−1 within a print nozzle, increasing anisotropy by increasing a translational velocity of a print nozzle to achieve a draw ratio>1, and then annealing the filament. Also provided is a component formed via 3D printing, comprising a layer from a 3D printed filament composed of an anisotropic nanostructured thermoplastic elastomer, where at least one portion of the component has at least two macro segments arranged linearly in series or a combination of segments both in series and in parallel, where the at least two macro segments are configured to tune the mechanical functionality of the at least one portion of the component.
Resumen de: US20260061699A1
Sintering methods comprising (a) providing a layer of powder material on a platform; (b) projecting incident light from a source onto a surface area of the layer of powder material, wherein the incident light is projected for a sufficient time to densify the layer of powder material and form a layer of densified material; (c) optionally cooling the layer of densified material to a sufficient temperature to solidify or vitrify the layer of densified material to form a layer of sintered material; and (d) repeating steps (a) to (c) to form a sintered article in a layer-wise fashion are disclosed. The incident light may cause complete melting of the powder material or heat the powder material above its glass transition temperature. In general, the incident light is projected simultaneously and for a time span substantially the same as formation of the layer of densified material.
Resumen de: US20260061664A1
A method and material for 3D printing objects containing heat-sensitive molecules are disclosed. The composition consists of a water-saturated, polar thermoplastic polymer, such as highly hydrolyzed polyvinyl alcohol (PVA), into which functional molecules—proteins, peptides, pharmaceuticals, fragrances, or living cells—are dispersed. The polymer is first hydrated to form a gel, extruded and cut into pellets, then partially dried through a multi-stage dehydration process that leaves a moisture-rich core and a dry outer shell. During extrusion at typical FDM nozzle temperatures (≈200° C.), entrapped water within the material vaporizes at ≈100° C., providing in situ evaporative cooling and maintaining the temperature of the functional molecules below their degradation point. The process enables additive manufacturing of structurally sound objects that preserve the activity of heat-sensitive additives, opening new applications for 3D-printed consumables, pharmaceuticals, and bio-functional components.
Resumen de: US20260061703A1
Methods and systems for additive manufacturing are provided. In some embodiments, a method includes depositing a curable material on a substrate. The method can also include directing heat toward the curable material to remove one or more bubbles present in the curable material. The method can also include outputting energy toward the curable material on the substrate to form an object portion on a build platform according to an additive manufacturing process.
Resumen de: US20260061705A1
Systems, apparatus, computer-readable medium, and associated methods for secure additive manufacturing are disclosed. An example apparatus includes an inbound one-way data diode to receive, authenticate, and route an inbound file in a first direction within a secure additive manufacturing system, the inbound one-way data diode unable to transmit data out of the secure additive manufacturing system in a second direction. The example apparatus includes an additive manufacturing machine to build a part, the build of the part adjusted by the inbound file when authenticated by the inbound one-way data diode. The example apparatus includes an outbound one-way data diode to authenticate and transmit outbound data in the second direction to an external system outside the secure additive manufacturing system, the outbound one-way data diode unable to transmit data into the secure additive manufacturing system in the first direction.
Resumen de: US20260061700A1
A rotatable extrusion system is disclosed. The system includes a syringe pump base including a multi-nozzle attachment disposed at a bottom of the base. A plurality of syringe pumps are mounted to the syringe pump base, the plurality of syringe pumps respectively including a pump motor and a material reservoir. A rotational motor is operatively coupled to the syringe pump base for rotating the plurality of syringe pumps about a rotation axis.
Resumen de: US20260061698A1
A process of manufacturing a golf club component includes the step of spreading a layer of powdered material over a build plane defined over a build platform. Another step includes bonding, using an energy source, portions of the layer of powdered material. A different step includes repeating the spreading and bonding until the golf club component is formed. The process further includes the step of extracting loose powdered material from the golf club component. The build plane is offset from a ground plane between about 5 degrees and about 160 degrees. The ground plane is defined as a horizontal plane parallel to the ground when the golf club component is at address, and the build plane is not a face angle of the golf club component.
Resumen de: US20260060845A1
A wearable wound management system integrating a flexible microfluidic assembly and real-time electrochemical sensing to autonomously sample, transport, and analyze wound exudate. A Janus membrane, formed by selective deposition of perfluoroalkyl-functionalized silica nanoparticles and O2 plasma etching on a PET film, may collect fluid via its superhydrophobic wound-facing side and deliver it to a curved, wedge-shaped microfluidic channel that enhances capillary flow. Downstream, a graded PDMS micropillar array refreshes a sensing region by unidirectional fluid movement. A drop-on-demand inkjet-printed, CO2 laser-patterned flexible sensor patch may measure nitric oxide, oxygen, hydrogen peroxide, pH, temperature, and other relevant metrics. An encapsulated wireless electronic module may transmit health data for wireless monitoring. This system, combined with machine-learning analytics, may enable continuous, in situ monitoring and predictive wound classification, supporting proactive and personalized chronic wound care.
Resumen de: US20260060783A1
In an embodiment, a method of manufacturing customized ceramic labial/lingual orthodontic brackets by additive manufacturing may comprise measuring dentition data of a profile of teeth of a patient, based on the dentition data, creating a three dimensional computer-assisted design (3D CAD) model of the patient's teeth, and saving the 3D CAD model, designing a virtual 3D CAD bracket structure model for a single labial or lingual bracket structure based upon said 3D CAD model, importing data related to the 3D CAD bracket structure model into an additive manufacturing machine, and directly producing the bracket with the additive manufacturing machine by layer manufacturing from an inorganic material including at least one of a ceramic, a polymer-derived ceramic, and a polymer-derived metal.
Resumen de: US20260061495A1
Molten metal dispensing systems and techniques for additive manufacturing in space are provided. In one aspect, a molten metal dispensing system includes a cartridge including a channel extending from a first end of the cartridge to a second end of the cartridge, the channel configured to receive a metal bar at the second end of the cartridge. The system also includes a filter positioned adjacent to the first end of the cartridge, a heater configured to melt a portion of the metal bar at the first end of the cartridge, an actuator configured to apply a force to the metal bar to move the metal bar towards the first end of the cartridge. The movement of the metal bar pushes the melted portion of the metal bar through the filter to dispense the melted portion of the metal bar.
Resumen de: US20260061490A1
The disclosure presents a combination of additive manufacturing processes that could be used to produce different portions or features of a hybrid structure, such that a first additive manufacturing process could be used to form a complex seed part or first section of the hybrid component, and a different additive manufacturing component could be used to form a second section of the hybrid component. When two components are manufactured, a mandrel could be assembled into the first component to provide rigidity and resistance to deformation of the first component, even during and after formation of the second component on the interface surface of the first component using a second additive manufacturing process. Finally, struts could be formed directly on a base plate and before formation of the component so that the base plate temperature could increase to be in equilibrium with the temperature of the newly deposited material.
Resumen de: US20260061487A1
The disclosure presents a combination of additive manufacturing processes that could be used to produce different portions or features of a hybrid structure, such that a first additive manufacturing process could be used to form a complex seed part or first section of the hybrid component, and a different additive manufacturing component could be used to form a second section of the hybrid component. When two components are manufactures, a mandrel could be assembled into the first component to provide rigidity and resistance to deformation of the first component, even during and after formation of the second component on the interface surface of the first component using a second additive manufacturing process. Finally, struts could be formed directly on a base plate and before formation of the component so that the base plate temperature could increase to be in equilibrium with the temperature of the newly deposited material.
Resumen de: US20260061483A1
Molten metal dispensing systems and techniques for additive manufacturing in space are provided. In one aspect, a molten metal dispensing system includes a cartridge including a channel extending from a first end of the cartridge to a second end of the cartridge, the channel configured to receive a metal bar at the second end of the cartridge. The system also includes a filter positioned adjacent to the first end of the cartridge, a heater configured to melt a portion of the metal bar at the first end of the cartridge, an actuator configured to apply a force to the metal bar to move the metal bar towards the first end of the cartridge. The movement of the metal bar pushes the melted portion of the metal bar through the filter to dispense the melted portion of the metal bar.
Resumen de: US20260061491A1
The disclosure presents a combination of additive manufacturing processes that could be used to produce different portions or features of a hybrid structure, such that a first additive manufacturing process could be used to form a complex seed part or first section of the hybrid component, and a different additive manufacturing component could be used to form a second section of the hybrid component. When two components are manufactures, a mandrel could be assembled into the first component to provide rigidity and resistance to deformation of the first component, even during and after formation of the second component on the interface surface of the first component using a second additive manufacturing process. Finally, struts could be formed directly on a base plate and before formation of the component so that the base plate temperature could increase to be in equilibrium with the temperature of the newly deposited material.
Resumen de: US20260061486A1
In one aspect, a method for fabricating metal particles is disclosed, which includes adding a plurality of metallic elements into a plasma reactor comprising a circulating fluid and two electrodes, evaporating the metallic elements to form metal vapor using plasma generated by at least one electric discharge pulse between the electrodes; and condensing the metal vapor to form metal particles. In some embodiments, the metal particles comprise metal oxide particles. In some embodiments, the metal particles are useful as part of pharmaceutical compositions or dietary supplements.
Resumen de: US20260061496A1
Molten metal dispensing systems and techniques for additive manufacturing in space are provided. In one aspect, a molten metal dispensing system includes a cartridge including a channel extending from a first end of the cartridge to a second end of the cartridge, the channel configured to receive a metal bar at the second end of the cartridge. The system also includes a filter positioned adjacent to the first end of the cartridge, a heater configured to melt a portion of the metal bar at the first end of the cartridge, an actuator configured to apply a force to the metal bar to move the metal bar towards the first end of the cartridge. The movement of the metal bar pushes the melted portion of the metal bar through the filter to dispense the melted portion of the metal bar.
Resumen de: US20260061493A1
A method for treating a part in order to heal cracks, includes bringing surfaces of at least one crack in a part into contact with one another at at least one contact point, expanding the contact of the at least one contact point associated with the at least one crack and applying hot isostatic pressure to the part.
Resumen de: US20260060750A1
A system and method for planning and simulating a surgical operation to create a patient-specific spinal implant are disclosed. The system comprises a remote server configured to receive patient-specific medical image data and generate a 3D mesh model of the patient's spine using algorithms that separate vertebral bodies, remove artifacts, and smooth surfaces. A doctor's computer receives the 3D mesh model and allows real-time manipulation of intervertebral spaces to achieve a desired spinal curvature. The server generates a spinal implant design with surface-mapped endplates matching the patient's vertebral anatomy, which is transmitted to a 3D printer for manufacturing. The method includes steps of receiving image data, generating and updating the 3D mesh model based on doctor input, generating the final implant design, and transmitting it for production. The invention enables the creation of patient-specific spinal implants with improved conformity and surgical outcomes.
Resumen de: US20260061262A1
The purpose of the present invention is to form a coating layer so as to increase the frictional force of a golf club face and to provide durability to the above coating layer to ensure the longer performance life of a golf club. According to the above purpose, the present invention provides a coating layer in which diamond particles are laminated on a golf club face by 3D printing.
Resumen de: US20260060688A1
A biodegradable flow diverting device (BFDD) that will regulate blood flow into an aneurysmal sac, act as a scaffold for endothelization at the neck of an aneurysm, and degrade after successful dissolution of aneurysm and remodeling of blood vessel. This BFDD and associated fabrication method have the following features: (1) This is a non-braided FDD. The pore shapes, sizes, architectures (especially at the inlet and outlet of the pores), pore densities and porosities can be controlled for the optimum performance depending on the blood vessel and aneurysmal morphologies from patient MRI images, (2) BFDD is developed on a rotary arm with programmable variable speed and diameter in conjunction with a micromotion stage (3) Fabrication system can take any material including blended/composite biomaterials by adjusting temperature of the electro-melt extruder/needle and (4) Fabrication system is compatible with CAM (computer aided manufacturing) software and able to operate based on the adapted G-code.
Resumen de: US20260065717A1
Techniques are described to gather information from an end user relating to fabrication process failures in a standardized manner. This information may be provided to an additive fabrication device manufacturer and analyzed by the manufacturer. Analysis may include identifying patterns in the data to identity problems relating to an additive fabrication device, software used to operate the device and/or user operations. Identification of such patterns may aid in selecting and/or generating support solutions to be provided the end user, or to improve the additive fabrication device and/or software.
Resumen de: US20260068530A1
Described herein are aspects of a three-dimensional (3D) piezoelectric structure that can be composed of a 3D periodic microlattice that can be composed of a piezoelectric composite material, wherein the 3D periodic microlattice can include a plurality of interconnected 3D node units capable of generating a piezoelectric response upon application of a stress to the 3D periodic microlattice, and wherein the plurality of interconnected 3D node units can form a tailored piezoelectric tensor space. Also described herein are systems that can include one or more of the 3D piezoelectric structures described herein. Also described herein are methods of making and using the 3D piezoelectric structures described herein.
Resumen de: EP4703666A1
Die Erfindung betrifft einen Wärmetauscher (100), insbesondere Wärmetauscher (100) zur Schaltschrankklimatisierung, mit einem Rohrleitungssystem (10), das zur Leitung eines Kältemittels (12) ausgebildet ist und mehrere Rohrstücke (13) ) sowie mindestens ein Rohrstückverbindungselement (14) umfasst, wobei das mindestens ein Rohrstückverbindungselement (14) jeweils zwei Endabschnitte (151, 152) der Rohrstücke (13) fluidleitend miteinander verbindet, und einem Wärmeübertragungselement (11), das vorzugsweise als Rippenanordnung (111) mit einer Vielzahl von Rippen (16) ausgebildet ist, wobei das Wärmeübertragungselement (11) die Rohrstücke (13) des Rohrleitungssystems (10) derart aufnimmt, dass die Endabschnitte (151, 152) der Rohrstücke (13) aus dem Lamellenpaket (11) herausragen. Ferner ist mindestens eine Kapseln (171, 172) vorgesehen, wobei die Endabschnitte (151, 152) der Rohrstücke (13) des Rohrleitungssystems (10) in die mindestens eine Kapsel (171, 172) münden, sodass das mindestens eine Rohrstückverbindungselement (14) innerhalb der mindestens einen Kapsel (171, 172) angeordnet ist.
Resumen de: EP4703117A1
A molding device includes a first mold, a second mold including a base portion and a peripheral portion disposed around or over the base portion, a mold cavity defined by the first mold and the second mold, and a first carrier disposed within the mold cavity and is attachable to and detachable from the base portion or the peripheral portion of the second mold.
Resumen de: US2024342984A1
Described are porous sintered metal bodies and methods of making porous sintered metal bodies by additive manufacturing methods.
Resumen de: CN120659680A
The invention relates to a method for the additive manufacturing of a metal part, the selective sintering of at least one layer (10) of metal powder by means of a laser beam (12) controlled by a control system, said additive manufacturing method comprising at least: a step of determining during which a plurality of sets of parameters are determined; a production step during which, for each set of parameters, at least one sample is produced by means of additive manufacturing using the set of parameters; an analysis step during which the sample is analyzed in order to obtain a distribution of at least one dimension (D1, D2) of pores (20) of the sample; an acquisition step during which, for each set of parameters, a manufacturing speed (Vf) is acquired when the part is manufactured using the set of parameters; a selection step during which a set of parameters (Js) is selected on the basis of the characteristic values of the distribution of pore (20) dimensions (D1, D2) associated with each set of parameters and the manufacturing speed (Vf); and a step of additive manufacturing of the part using the selected set of parameters.
Resumen de: US2023173753A1
A leveling system for a three-dimensional printing system, comprises a rotatable roller, a waste collecting bath, a blade for removing liquid waste from the roller into the bath, and a plurality of tubular structures. Each tubular structure has an inlet at a vicinity of a base of the bath and an outlet connectable to a pump system.
Resumen de: US2025347020A1
Exemplary electroplating systems may include a vessel. The systems may include a paddle disposed within the vessel. The paddle may be characterized by a first surface and a second surface. The first surface of the paddle maybe include a plurality of ribs that extend upward from the first surface. The plurality of ribs may be arranged in a generally parallel manner about the first surface. The paddle may define a plurality of apertures through a thickness of the paddle. Each of the plurality of apertures may have a diameter of less than about 5 mm. The paddle may have an open area of less than about 15%.
Resumen de: EP4704542A1
Dispositif semi-conducteur comprenant un boitier de circuit intégré (1) présentant une matrice de connexion (6) pour une connexion à un circuit imprimé (15) caractérisé en ce que le boitier de circuit intégré (1) comprend une structure de protection (2) contre des interférences électromagnétiques des connecteurs élémentaires (3, 4), tels que de billes, formée par un dépôt par impression 3D d'une paroi métallique (11) de protection entre les connecteurs élémentaires (3, 4).
Resumen de: EP4703107A2
Verfahren (1000) zur Herstellung einer Wand (200, 300, 3000a), aufweisend: computergestütztes Konstruieren (1010) der Wand (200, 300, 300a), wobei die Wand (200, 300, 300a) einen Installationskanal (1) aufweist; computergestütztes Zerlegen (1020) der konstruierten Wand (200, 300, 300a) in Bauelemente (100, 110, 120, 130, 140, 150, 160), wobei eine Vielzahl zueinander benachbarter Bauelemente (100, 110, 120, 130, 140, 150, 160) zumindest einen Abschnitt des Installationskanals (1) umfasst; computergestütztes Erstellen (1030) eines Steuerdatensatzes zur Steuerung einer Vorrichtung (500) zur additiven Fertigung, die konfiguriert ist, aus zumindest einem Baustoff die Vielzahl der Bauelemente (100, 110, 120, 130, 140, 150, 160) individuell bereitzustellen; additives Fertigen (1040) der Vielzahl der Bauelemente (100, 110, 120, 130, 140, 150, 160) für die Wand (200, 300, 300a) mit der Vorrichtung (500) zur additiven Fertigung unter Verwendung des Steuerdatensatzes; und typischerweise Errichten der Wand (1100) durch ein geordnetes Fügen der Vielzahl der gefertigten Bauelemente (100, 110, 120, 130, 140, 150, 160) umfassend ein Ausbilden eines Verbandes (200, 300, 300a) der Bauelemente 100, 110, 120, 130, 140, 150, 160).
Resumen de: EP4703066A2
A hybrid method for inspecting and repairing a gas turbine engine component, comprising: coupling at least one gas turbine engine component to an inspection system housed within an enclosure area; scanning, via the inspection system, the gas turbine engine component with a first scanner; probing, via the inspection system, the gas turbine engine component with a contact probe; scanning, via the inspection system, areas of interest of the gas turbine engine component with a second scanner; depositing layers of powder onto the areas of interest of the gas turbine engine component; solidifying and fusing each layer with a first directed energy beam to define the gas turbine engine component; pre-heat treating the solidified layer prior to depositing a subsequent layer of powder; and cold working a surface of a solidified layer prior to depositing a subsequent layer of powder.
Resumen de: EP4703031A1
A temperature-controlled mixing and dispensing device (200) includes a receptacle (218) having a chamber (264), a mixing blade (216) disposed within the chamber (264), a heater (212) for heating the chamber (264), a nozzle (220), and a port (210) in fluidic communication with the chamber (264). The port (210) is configured to be pneumatically coupled to a pump (300D). The nozzle (220) dispenses a mixture of a first material (265M) and a second material (265N) disposed within the receptacle (218) when the pump (300D) pumps air into the port (210).
Resumen de: EP4703569A2
An isogrid structure (22A; 22B) has a wall (38) having a first face (40) and a second face (42). An isogrid of hollow ribs (70, 72, 74) is formed on the wall second face (42). The ribs (70, 72, 74) of the isogrid have respective rib interiors. The wall (38) comprises a first alloy and the ribs (70, 72, 74) comprise a second alloy different from the first alloy. Junctions (76) of the ribs (70, 72, 74) are at bosses having an interior surface open to the rib interiors and an external environment.
Resumen de: EP4703068A1
The disclosure presents a combination of additive manufacturing processes that could be used to produce different portions or features of a hybrid structure, such that a first additive manufacturing process could be used to form a complex seed part or first section of the hybrid component, and a different additive manufacturing component could be used to form a second section of the hybrid component. When two components are manufactures, a mandrel could be assembled into the first component to provide rigidity and resistance to deformation of the first component, even during and after formation of the second component on the interface surface of the first component using a second additive manufacturing process. Finally, struts could be formed directly on a base plate and before formation of the component so that the base plate temperature could increase to be in equilibrium with the temperature of the newly deposited material.
Resumen de: CN121038918A
Examples of a three-dimensional (3D) printing method are disclosed. In one example method, an intermediate object is generated by i) forming a build material layer having build material particles, ii) applying a binder to at least a portion of the build material layer based on data derived from a digital 3D model, the binder consisting of polyfurfuryl alcohol dissolved in an organic solvent, iii) evaporating the organic solvent and precipitating polyfurfuryl alcohol from the solution by heating the layer of build material to a first temperature, thereby binding the particles of build material to the precipitated polyfurfuryl alcohol in the at least part of the layer of build material, and iv) repeating the spreading, selective application and heating. Then, by heating the intermediate object to a second temperature, a carbon residue is produced from the precipitated polyfurfuryl alcohol throughout the intermediate object.
Resumen de: EP4703069A1
A novel family of die steels is disclosed. This family of die steels is strengthened through the formation of M<sub>2</sub>C precipitates and one or two additional precipitates, wherein M is one or more of chromium (Cr), vanadium (V), molybdenum(Mo) or tungsten (W) . These additional precipitates may include copper precipitates, NiAl precipitates, and Ni (Al<sub>1-x</sub>Mn<sub>x</sub>) precipitates. This creates a steel having an acceptable hardness, as well as excellent thermal conductivity.
Resumen de: EP4703128A1
Problem To provide a product made of fiber-reinforced plastic that is lightweight and has high mechanical strength.Solution A method for producing a fiber-reinforced plastic product including fibers and a resin, the method including an additive manufacturing step, a first pressurization step, and a second pressurization step, in which the second pressurization step is a step of pressurizing, under heating, a product obtained through the first pressurization step, and of obtaining a product having a volume smaller than a volume of the product obtained through the first pressurization step.
Resumen de: EP4703124A1
Die Offenbarung betrifft das technische Gebiet der Kunststoffverarbeitung, insbesondere der Herstellung und Verarbeitung von Kunstharzen und beschreibt im Detail eine Zusammensetzung, insbesondere eine 3D-verdruckbare Zusammensetzung, auf Kunstharzbasis sowie deren Herstellung und Verwendung für die Herstellung von Textilverbundstoffen für Schutzkleidung .
Resumen de: WO2025040672A1
The invention relates to a redundant thermal-control device comprising two two-phase structures (1, 2) with stages obtained by additive manufacturing, each stage (5, 6) comprising a sealed enclosure with a capillary medium and a vapour channel. Each two-phase structure has an assembly end where the stages each have an open connection end (50, 60; 51, 61) and where the first stage has a section that projects from the second stage. At their connection ends (50, 51), the sealed enclosures of the first stages of the two-phase structures are joined and welded together by a closed sealed peripheral bead (20, 21). A bridge (10), comprising a sealed enclosure with a vapour channel and a capillary medium, is housed in the space between the connection ends (60, 61) of the second stages; a sealed and closed weld bead (22, 23) connects the sealed enclosures of the bridge and the two-phase structures.
Resumen de: WO2024224269A1
Equipment and a process for the three-dimensional printing of composite materials are described, said equipment comprising: - a feeding head for feeding at least one continuous filiform element; said continuous filiform element comprising at least one dispersed phase and at least one continuous phase - a movement assembly for the relative movement between the feeding head (50) and the three-dimensional object (20) to be printed and/or supporting surface (9); - at least one energy source (8) configured to deliver a pre-set amount of energy to said continuous filiform element (4); characterised in that said feeding head (50) comprises: at least one cutting device (2) arranged inside said feeding head (50).
Resumen de: WO2024224229A1
Equipment and a process for three-dimensional printing of composite materials are described, said equipment comprising: • - a feeding head for feeding at least one continuous filiform element; said continuous filiform element comprising at least one dispersed phase and at least one continuous phase; said feeding head comprising at least one deposition apparatus arranged in its end portion; • - a movement assembly for the relative movement between the feeding head (50) and the three-dimensional object (20) to be printed and/or supporting surface (9); • - at least one energy source (8) configured to deliver a pre-set amount of energy to said continuous filiform element (4); said deposition apparatus (50) comprises: • - a device (40) for varying the shape of the section of the continuous filiform element (4) being deposited, comprising at least one side surface configured to be in contact with the continuous filiform element (4), thus occupying at least one portion of the outer perimeter of the section of said continuous filiform element (4) and so as to define an empty portion on the outer perimeter of the section of said continuous filiform element (4) equal to or greater than 5% of the outer perimeter of the section of said continuous filiform element (4).
Resumen de: WO2024223794A1
The present invention relates to a method for producing a collagen and silk polypeptide composite structure. In addition, the present invention relates to a collagen and silk polypeptide composite structure and uses thereof.
Resumen de: MX2025012622A
The invention relates to a device for the directed application of gas to a build space for additive manufacturing. This comprises: - a process chamber which limits a build space and has a build platform extending in an X/Y plane, wherein a first boundary region of the build platform extending in the Y direction forms a gas supply side, and wherein a second end region of the build platform opposite the gas supply side in the X direction and extending in the Y direction forms a gas discharge side, - a first nozzle device which is arranged on the gas supply side directly adjacent to the build platform, and is designed to output a horizontal first gas flow flowing approximately parallel to the surface of the build platform in the X direction, and - a third nozzle device, which is arranged above the build platform in a vertical Z direction orthogonal to the X/Y plane and horizontally offset to the first nozzle device in the X direction, is directed towards the build platform, and is designed to output a third gas flow flowing towards the build platform, wherein the first and third nozzle devices are designed such that the first and the third gas flow form an overall gas flow which in the region of the build platform generates a substantially laminar flow from the gas supply side towards the gas discharge side.
Resumen de: CN121013774A
The invention relates to a scanner system (10) for use in an apparatus (100) for producing a three-dimensional workpiece by applying electromagnetic radiation or particle radiation to a layer of a raw material powder, the scanner system (10) comprising a pivotable scanner mirror (12) having a first surface (14) configured to be impinged by an irradiation beam (116) emitted by a radiation source (114). Furthermore, the scanner system (10) includes a scanner mirror cooling device (22) having a first coolant supply device (26) configured to direct a first coolant flow (28) over the first surface (14) of the scanner mirror (12), and/or directing a first coolant flow onto a first surface of the scanner mirror.
Resumen de: MX2025012830A
Medium manganese powder for additive manufacturing, printed part and method of manufacturing the same The present invention relates to a medium manganese powder for the manufacturing of steel parts and in particular for their additive manufacturing, and to the printed part having a composition comprising, by weight percent: C: 0.03 - 0.60%, Mn: 2.5 ⿿ 12.0 %, O ⿤ 0.100 %, P ⿤ 0.013 %, S ⿤ 0.015 %, N ⿤ 0.200 % and comprising optionally one or more of the following elements, in weight percentage: Al ⿤ 1.0%, Mo ⿤ 0.65%, B ⿤ 0.004 %, Si ⿤ 3 %, Ti ⿤ 0.2 %, Nb ⿤ 0.2%, V ⿤ 0.3%, Sn ⿤ 0.1%, Sb⿤ 0.1%, Ni ⿤ 1.0%, Cr ⿤ 1.0%, Cu ⿤ 1.0% the remainder of the composition being iron and unavoidable impurities resulting from the elaboration.
Resumen de: CN121079192A
The invention provides a method for producing a 3D article by means of fused deposition modeling, the method comprising: a 3D printing stage comprising layers of a 3D printable material to provide a 3D article comprising a 3D printed material wherein the 3D article comprises a plurality of layers of 3D printed material, wherein: (a) the method comprises generating a stack by depositing 3D printing material along n printing paths (APn), the stack comprising n layers of 3D printing material on top of each other, where the n printing paths (APn) and printing conditions are selected such that the stack comprises stack segments and stack modulation; (b) for the stack section: (i) the n-th layer is arranged on the (n-1)-th layer, and/or (ii) the (n-1)-th layer is arranged on the (n-2)-th layer; (c) for at least a portion of the stack modulation: the n-th layer is partially disposed on the (n-1)-th layer and partially disposed on the (n-2)-th layer, and the (n-1)-th layer is partially disposed between the n-th layer and the (n-2)-th layer; and (d) n > = 3, and the 3D printable material comprises a light transmissive material.
Resumen de: WO2024224174A1
A method for designing a functional prosthesis of customized hand, for patients amputated at trans-radial level, implemented with additive manufacturing technology. The method flow for designing and developing the devices consists of the following steps: i) kinematic analysis and 3D scan of the limb contralateral to the amputated one; ii) kinematic synthesis of the planar mechanism at one active degree of freedom (GdL), modular for each finger, and optimization of the same through a global performance index (GPI); iii) prototyping of the assembly of five fingers.
Resumen de: US20260054313A1
A method of forming a hard polycrystalline compact, such as a polycrystalline diamond compact, for use in an earth-boring tool includes forming a three-dimensional structure that has an open pore network. The three-dimensional structure includes at least one of a metal, metal alloy, or diamond grains. Particulate material is disposed within the three-dimensional structure. The particulate material also includes at least one of a metal, metal alloy, or diamond grains. The three-dimensional structure with the particulate material therein is then subjected to a high-temperature, high-pressure (HTHP) sintering process to form the hard polycrystalline compact.
Resumen de: JP2025018233A
To provide hot work tool steel powder for additive manufacturing, which is easy to harden deep inside even in a large sized additive manufacturing, is difficult to generate cracks in a molded body and a boundary surface of the molded body and a base material for additive manufacturing, and has high thermal conductivity and a lamination molded body therewith.SOLUTION: Hot work tool steel powder for additive manufacturing comprising in mass %, as essential additive components, C: more than 0.10% and less than 0.45%, Ni: more than 2.00% and less than 8.00%, as optional additive components, Si: less than 0.60%, Mn: less than 5.00%, Cr: less than 2.00%, Mo: less than 1.20%, W: less than 2.00%, V: less than 0.60%, Al: less than 0.10%, and the remainder consisting of Fe and unavoidable impurities, and Ni+Mn: less than 8.50%, and a molded body that is lamination-molded using this powder.SELECTED DRAWING: None
Resumen de: WO2025031948A1
The invention relates to a method for generating control data for additively manufacturing a component (2), having the steps of: - providing a component data set (D) comprising data on the three-dimensional shape of a component (2) and data on a three-dimensional structural region (S) of the component (2) which is to be provided with a structure (T) in a normal operation, - providing a structural data set comprising at least one piece of data for constructing a unit cell (E) of a periodic structure (T), - specifying a grid (G) consisting of three-dimensional grid cells (g) in the structural region (S), wherein the unit cell (E) can be spatially arranged in the grid cells (g), - fitting the unit cell (E) in each grid cell (g) such that the shape of the unit cell (E) corresponds to the shape of the respective grid cell (g) and filling the grid cells (g) with a respective fitted unit cell (E) in order to form a structure (T), - generating control data (PS) for constructing a component (2) in layers, said component having a structural region (S) structured by means of said structure (T), and - outputting the control data (PS) to a device (1) for additively manufacturing a component (2). The invention additionally relates to corresponding control data, to a corresponding control data generating device, to a controller for a device for an additive manufacturing process, to a corresponding device for an additive manufacturing process, and to a manufacturing method.
Resumen de: WO2025027496A1
A custom tool for forming a dental restoration in a mouth of a patient includes a one-piece mold body providing for a customized fit with at least one tooth of the patient, the one-piece mold body including an occlusal portion forming an occlusal surface corresponding with an occlusal surface of the tooth, a mesial proximal portion forming a mesial proximal surface corresponding with a mesial proximal surface of the tooth, and a distal proximal portion forming a distal proximal surface corresponding with a distal proximal surface of the tooth. The mold body is configured to combine with the tooth of the patient to form a mold cavity encompassing missing tooth structure of the tooth. The occlusal portion, the mesial proximal portion, and the distal proximal portion are based on three-dimensional scan data of the mouth of the patient.
Resumen de: WO2026005143A1
Disclosed is a multi-phase 3D printing apparatus. According to the present invention, provided is a bidirectional pressure control unit capable of controlling pressure in both directions, positive pressure for accelerating the flow of a first material forming a sculpture and negative pressure for decelerating or braking the flow of the first material, so that the flow of the first material can be precisely controlled. For example, a control means capable of controlling the flow of the first material in real time in a molding process can be provided so that an application volume per unit time set from the width of a scan line forming a transfer path of a first discharge unit for discharging the flow of the first material and the length of the scan line per unit time corresponding to a transfer speed of the first discharge unit can be filled without excess or deficiency.
Resumen de: US20260035047A1
The present disclosure provides a 3D-printed bicycle saddle including a shell and an elastic pad disposed on the shell, wherein the elastic pad has a bottom surface facing the shell and a top surface facing away from the bottom surface. The elastic pad features a 3D-printed lattice structure including a plurality of lattice struts, wherein the diameter of each lattice strut gradually increases in a gradient manner from the top surface to the bottom surface of the elastic pad. The difference between the maximum diameter and the minimum diameter of each of the lattice struts is smaller than or equal to 0.5 mm.
Resumen de: WO2025027496A1
A custom tool for forming a dental restoration in a mouth of a patient includes a one-piece mold body providing for a customized fit with at least one tooth of the patient, the one-piece mold body including an occlusal portion forming an occlusal surface corresponding with an occlusal surface of the tooth, a mesial proximal portion forming a mesial proximal surface corresponding with a mesial proximal surface of the tooth, and a distal proximal portion forming a distal proximal surface corresponding with a distal proximal surface of the tooth. The mold body is configured to combine with the tooth of the patient to form a mold cavity encompassing missing tooth structure of the tooth. The occlusal portion, the mesial proximal portion, and the distal proximal portion are based on three-dimensional scan data of the mouth of the patient.
Resumen de: US20260054434A1
A molding device includes a first mold, a second mold including a base portion and a peripheral portion disposed around or over the base portion, a mold cavity defined by the first mold and the second mold, and a first carrier disposed within the mold cavity and is attachable to and detachable from the base portion or the peripheral portion of the second mold.
Resumen de: WO2026037195A1
Disclosed in the present application are a multi-color 3D printing system and a 3D printing method therefor. The multi-color 3D printing system comprises: a 3D printer having no less than two print heads, wherein each print head has an extruder, and the print heads include a first print head and a second print head; at least one material bin connected to the print heads, which material bin stores materials for 3D printing; material channels connecting the print heads and the material bin; and a control unit for controlling printing, which is configured to control the multi-color 3D printing system to perform a material changing action, wherein a plurality of parallel channels corresponding to and connected to the material bin are provided at the ends of the material channels close to the material bin, the parallel channels have hollow cavities for filaments of the materials to pass through, and the parallel channels are provided with material feeding and retracting mechanisms corresponding to the material bin and connected to the parallel channels.
Resumen de: US20260049635A1
A sensor rolling body has a raceway layer and a sensor layer arranged radially on the inside of the raceway layer. At least one electronic device embedded in the sensor layer. The sensor layer and the at least one electronic device are each produced by an additive manufacturing process.
Resumen de: PL450919A1
Przedmiotem zgłoszenia jest głowica do wygładzania i ujednolicania wiązań miedzy warstwami rolek wytwarzanych technologią druku 3D metodą selektywnego przetapiania powierzchniowego. Głowica posiada korpus (1) składający się z płaszcza wewnętrznego (2), który połączony jest trwale z pierścieniem podstawy oraz koncentrycznie połączonego względem płaszcza wewnętrznego (2) i trwale z pierścieniem podstawy płaszcza zewnętrznego (5), przy czym w przerwie między płaszczem wewnętrznym (2) a płaszczem zewnętrznym (5) umieszczona jest spirala miedziana w taki sposób, że kanał wlotowy (7) znajduje się bliżej dyfuzora (8), natomiast kanał wylotowy (9) jest poniżej kanału wlotowego (7), korpus (1) w górnej części jest zakryty przylegającym dyfuzorem (8) przeznaczony do montażu opalarki warsztatowej (17).
Resumen de: PL450920A1
Przedmiotem zgłoszenia jest urządzenie do wygładzania selektywnego powierzchni rolek wytworzonych w technologii druku 3D, które posiada zbiornik (1) dla rozpuszczalnika (2), który to zbiornik (1) posiada przewód zalewowy (4) wraz z korkiem (5), znajdujący się poniżej poziomu obrabianej rolki (6), a powyżej poziomu rozpuszczalnika (7) zamocowane są trwale przewody elastyczne (8), które rozłącznie zamocowane są na króćcach pokrywy (9), we wnętrzu zbiornika (1) przeznaczonym do osadzenia obrabianej rolki (6), osadza się pierścień formujący zewnętrzny (10) oraz uszczelki zewnętrzne (11), urządzenie posiada także rdzeń formujący wewnętrzny (12) przeznaczony do umieszczenia w otworze centralnym obrabianej rolki (6) bezluzowo, na końcach rdzeń formującego wewnętrznego (12) osadzono uszczelki wewnętrzne (13) oraz pierścienie dystansowe (14), nadto rdzeń formujący wewnętrzny (12) posiada gwintowany górny koniec, na który nakręcona jest nakrętka (15) mocująca pokrywę (16) nakręcaną na gwint zbiornika (17), pokrywa (16) posiada otwór centralny oraz otwory wentylacyjne rozmieszczone promieniowo na powierzchni górnej pokrywy (16).
Resumen de: WO2026047052A1
The present invention relates to additive manufacturing arrangements and methods for additive manufacturing by selective fusion of layers of a three-dimensional product from a powder bed (240) comprising successively formed powder layers. An electron beam emitter (210) is configured to deliver an electron beam (220) towards a top surface (242) of the powder bed (240) and at least one detector (285) is configured to detect electron and/or photon radiation from a structure (291, 292) of a vacuum chamber (280) or inner surface (291, 292) of the vacuum chamber (280). An analysing unit (294) is configured to use the output signal from the at least one detector (285) to analyse the radiation distribution in the output signal to determine a resulting signal indicating a melt status of the melt pool and an electron beam controller (296) is configured to control the energy beam (220) in response to the resulting signal.
Resumen de: CN120841962A
The present invention relates to a SiSiC member having at least one elongated hole provided therein, the SiSiC member having a tubular region A and an outer-tube region B, the tubular region A being a region on the outer periphery of the elongated hole, the outer-tube region B being a region on the outer side of the tubular region A, the content of the outer-tube region B being less than the content of the elemental Si in the tubular region A in vol%, and the content of the elemental Si in the outer-tube region B being less than the content of the elemental Si in the outer-tube region A in vol%. The content of elemental Si in the outside-tube region (B) is high in terms of vol%.
Resumen de: US20260048437A1
A three-dimensional PBF-AM apparatus reflecting one aspect of the present invention includes a stage, a beam emission unit, a beam deflection unit, and a control unit. A powder layer made of a powder material is laid on the stage. The beam emission unit emits a beam toward the powder layer laid on the stage. The beam deflection unit deflects the beam emitted from the beam emission unit. The control unit controls the beam emission unit and the beam deflection unit. Before melting a region corresponding to a part to be manufactured in the powder layer laid on the stage with a melting beam, the control unit controls the beam emission unit and the beam deflection unit to perform pre-melting preheating in which the region corresponding to the part is heated with a heating beam.
Resumen de: US20260048436A1
The three-dimensional powder bed fusion additive manufacturing apparatus includes a build plate, a powder supply device, a beam irradiation device, and a control unit. The control unit controls the irradiation device. In addition, as a predetermined timing is reached when the powder material is melted, the irradiation device is controlled, a melting process of the powder material is interrupted, and a preheating process in which the powder material is preheated is performed.
Resumen de: US20260050248A1
An improved method and device for to the automated production and/or qualification of devices and/or device components. The device generally comprises an improved manufacturing technology. The provided device substantially improves upon for automated manufacturing technology.
Resumen de: CN120770055A
A method for spray forming a component includes: spraying a soft magnetic composite material into a mold through a nozzle; and adjusting the position of the mold relative to the position of the nozzle to control deposition of the soft magnetic composite material into the mold. Adjusting the position of the mold relative to the position of the nozzle is carried out with the mold mounted on the stage such that the mold is movable relative to the nozzle, and spraying of the soft magnetic composite material is controlled to provide deposition of the soft magnetic composite material to form the part in a near net shape.
Resumen de: AU2023303676A1
Element (100, 200, 300) for augment or bone filler, comprising at least one first outer-layer portion (101) having a trabecular lattice of metallic material, and further comprising at least one reinforcing inner layer (103) of metallic material having a plurality of channel structures (104) arrayed with respective channel openings (105) delimited by edges in structural contact with the at least one first outer-layer portion (101).
Resumen de: CN120770988A
The invention discloses an artificial limb printing method and device, electronic equipment, a storage medium and a computer program product.The method comprises the steps that a first physiological data set of a first user is obtained; calling a first artificial intelligence model to process the first physiological data set to obtain a first constraint parameter set; the first artificial intelligence model is used for recommending a constraint parameter group based on an input physiological data group; the constraint parameter set represents constraints related to the mechanical performance requirements corresponding to the input physiological data set; taking the first constraint parameter group as a constraint, and calling a generative design algorithm to process the first physiological data group to obtain a first design parameter group; the generative design algorithm is used for generating a design parameter group meeting the corresponding comfort requirement on the basis of the input physiological data group, and the design parameter group comprises a plurality of design parameters of the artificial limb; and generating a first file based on the first design parameter group and the slice parameter group, and outputting the first file to the three-dimensional printing device.
Resumen de: WO2025019505A1
A method of manufacturing a core shell alloy structure may include scanning one of a core or shell area of the alloy structure to obtain a first microstructure; scanning another of the core or shell area inset area to obtain a second microstructure; and rescanning the entire area to obtain the shell completely surrounding the core. The shell may have a smaller grain structure than the core. The core may be a single crystal.
Resumen de: CN120857914A
The present disclosure provides a method of making a ceramic article. The method comprises (a) obtaining a photopolymerizable slurry or sol comprising a plurality of ceramic particles distributed in the photopolymerizable slurry or sol, and (b) continuously moving a build substrate through the photopolymerizable slurry or sol using actinic radiation, and selectively polymerizing the photopolymerizable slurry or sol to form a gelled article. The method further includes (c) extracting a solvent from the gelled article to form an aerogel article or a xerogel article; (d) heat treating the aerogel article or the xerogel article to form a porous ceramic article; and (e) sintering the porous ceramic article to form a sintered ceramic article. The sintered ceramic article exhibits a specific density. In addition, additive manufactured ceramic articles exhibiting specific density, opacity, or both are provided.
Resumen de: US20260021631A1
Methods of forming an ophthalmic element via generating a map of data values associated with pixels included in an energy transmissibility pattern. Data values correspond with an amount of energy transmissible through the optical element at a pixel location. The data values may be converted to additive manufacturing printhead control commands. A first print pattern of polymerizable mixture is emitted as droplets from a manufacturing printhead. The first print pattern of polymerizable mixture corresponding with the map of data values associated with pixels included in an energy transmissibility pattern. At least a portion of the droplets are received on a receiving surface.
Resumen de: CN120116483A
The invention discloses a fused deposition modeling high-speed 3D printer, and relates to the technical field of plastic molding. The fused deposition modeling high-speed 3D printer comprises an equipment bottom plate, a printing fixing frame is fixedly connected to the top of the equipment bottom plate, a movable mechanical arm is fixedly connected to the front face of the printing fixing frame, a printing head is fixedly connected to the front face of the movable mechanical arm, and a material rolling wheel is fixedly connected to the back face of the printing fixing frame. According to the fused deposition modeling high-speed 3D printer, external water is pumped into a communicating container through a hydraulic water pump, and internal magnets enable corresponding outer magnets to move together through magnetic force, so that two positioning rods can lift a printing platform through supporting rods; due to the fact that the level of the interior of the communicating container is always kept at a certain height, the four positioning inner floating blocks are kept at the same height, the printing platform is kept flush with the horizontal plane, and then the printing precision is prevented from being affected by inclination of the printing platform.
Resumen de: WO2025014484A1
A method for implementing communications between a computer aided design (CAD) system and a multiphysics modeling module for use in simulating one or more mechanical physical attributes resulting from an additive manufacturing process of a submodel of a geometric CAD model of an object using a discretization method is disclosed. The method includes applying an inherent strain simulation for the object and applying a submodeling method for each submodel time step S' of the inherent strain simulation of an area of interest defining the submodel.
Resumen de: TW202506384A
Provided is a method for producing a three-dimensional (3D) molded article, with which it is possible to obtain a molded article that exhibits excellent weather resistance and durability and can be cured without using special energy in order to be cured by heating, irradiation with light, or the like. The method for producing a three-dimensional (3D) molded article has the following steps: i) a step for forming a first layer by coating a first room temperature-curable organopolysiloxane composition having a thixotropic coefficient of not less than 5 and less than 10 on a substrate using a 3D printer; ii) a step for obtaining a partially cured first layer by leaving the first layer under non-heating conditions; iii) a step for forming second and subsequent layers by coating second and subsequent room temperature-curable organopolysiloxane compositions having a thixotropic coefficient of not less than 5 and less than 10 on the partially cured first layer using a 3D printer; and iv) a step for obtaining partially cured second and subsequent layers by leaving the second and subsequent layers under non-heating conditions.
Nº publicación: JP2026034609A 27/02/2026
Solicitante:
ザユニバーシティオブノースカロライナアットチャペルヒル
Resumen de: CN120059185A
The invention relates to reactive polyamideimide oligomers, methods, and articles. The reactive ammonium carboxylic acid salts, polyamide amic acid oligomers and polyamide imide oligomers are made from at least one aromatic diamine, at least one aromatic di-, tri-or tetra-functional carboxylic acid or functional equivalents thereof, and at least one crosslinkable monomer or crosslinkable end-capping agent. The crosslinkable monomer or crosslinkable end-capping agent is reactive with at least one aromatic diamine or at least one di-, tri-or tetra-functional aromatic carboxylic acid or functional equivalents thereof, and has at least one unreacted functional group capable of chain extension and crosslinking after the formation of the reactive polyamideimide oligomer. The number average molecular weight (Mn) of the reactive polyamide amic acid and polyamide-imide oligomer is from about 1000 to about 10000 g/mol as calculated using the Carothers equation. Reactive ammonium carboxylates, polyamidoamic acid oligomers, and polyamideimide oligomers may be used in a variety of functional materials, methods of manufacture, and articles.